An openly licensed framework is provided to interpret and recalibrate pathogenicity predictors such as AlphaMissense in the somatic setting rather than a replacement predictor, and a cancer-calibrated stack modestly improves discrimination over the best single tool.
Abstract
Missense pathogenicity predictors such as AlphaMissense are increasingly used in clinical variant interpretation, yet they are trained on germline labels dominated by loss-of-function (LOF) variants. Using an openly licensed, reproducible benchmark of 768 Cancer Gene Census genes scored with 49 predictors (labels from CIViC, COSMIC, cancerhotspots, ClinVar and gnomAD), we show that 42 of 49 tools (86%) score oncogene, gain-of-function (GOF) variants worse than tumour-suppressor variants. This under-scoring is mechanistically characterized: missed drivers occupy low-conservation, solvent-exposed, non-destabilizing positions (phyloP 2.51 versus 7.89; relative solvent accessibility 0.671 versus 0.185; gene-clustered p = 4.8×10⁻²⁰ and 2.3×10⁻³⁵), and, counter-intuitively, the unsupervised and protein-language models now entering clinical use are the most affected. Per-gene oncogenic thresholds span 0.07–0.99, so a single global cut-off is mis-calibrated for most genes; we provide a per-gene calibration map. A cancer-calibrated stack (OncoCal) modestly improves discrimination over the best single tool (AUROC ≈ 0.93 versus 0.87), rescues drivers such as JAK2 V617F (0.334→0.57), and generalizes to independent deep mutational scanning data. We provide an openly licensed framework to interpret and recalibrate these tools in the somatic setting rather than a replacement predictor.
It is found that this test to judge whether a computer program predicts whether a genetic variant causes disease is easier to pass than it looks, and about half the advantage held by programs trained on clinical data disappears once the gene pattern is removed.
FuncVEP, a family of variant effect predictors trained on diverse functional data to predict the functional impact of missense variants, provides a robust, scalable solution for variant interpretation, advancing both diagnostic precision and gene discovery.
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This reproducible pipeline provides a clinically grounded computational approach to VUS triaging in precision oncology, with external validation supporting its generalizability to independent hereditary cancer gene datasets.
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A machine learning model is trained, DBP-CanPred, to identify driver mutations in DBPs using the sequence-derived evolutionary features, as well as structure-based features such as mutation-perturbed structural descriptors, which contributes to understanding mutation patterns in DNA-binding proteins and supports varian...
A. Phogat, Sowmya Ramaswamy Krishnan, Medha Pandey et al.· Frontiers in Bioinformatics· 0 citations
CASCADE is an agentic framework that predicts downstream transcriptional effects of gene perturbation from precomputed ARACNe regulatory networks, exposed via MCP. Prior work validates such tools by checking whether predicted genes are known cancer genes (membership); we instead test whether the predicted direction of...
Jose A. Bird· 1 citation
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