#14 · Genomics
Biological ML predictions need explicit tests for bias, confounding, and reliability
The dominant thread is that predictive or explanatory output from biological ML is treated as requiring independent validation before interpretation. Across the items this takes several forms. Plausibility checks fail to establish perturbation-specific accuracy for LLM-based virtual-cell reasoning, and interpretability methods give contradictory explanations on a TF-binding benchmark. Aging clocks carry systematic prediction bias that can reverse downstream associations. Other items add per-variant confidence estimation for Borzoi eQTL direction calls, adversarial worst-case latent confounder testing for gene associations, and detection of overrepresentation bias that inflates test AUC in permeability models. What is new is the shift from reporting aggregate performance toward explicit tests of reliability, bias, and robustness. The items share this principle rather than a single method, and they do not establish that these approaches are interchangeable or validated against one another.
Published papers
Genetic architecture of white matter microstructure captured by unsupervised deep representation learning of fractional anisotropy maps.
Proposes UDR-WM, an unsupervised deep learning framework on voxel-wise FA maps yielding UDIP-FA phenotypes with higher heritability and 586 GWAS loci.
Interpretable deep survival analysis of Alzheimer's disease via metabolic genetic variants.
FFN-Weibull survival model with SHAP explanations predicts Alzheimer's onset from SNPs (C-index 0.647), recovering APOE E4 and E2 effects.
Preprints
PRISMA: A tensor-based framework for deconstructing the genetic architecture of complex diseases, with application to diabetic retinopathy
PRISMA, a summary-statistics tensor-factorization method using graph Laplacian regularization and LD-aware blocks, decomposes GWAS signal into tissue-resolved…
High-Dimensional Sensitivity Analysis for Genomic Studies: An Adversarial Framework for Learning Worst-Case Latent Confounders
Introduces sensGAN, an adversarial deep-learning framework that learns worst-case latent confounders to quantify robustness of gene-association discoveries,…
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