aiDIVA is presented, an ensemble-AI combining statistical and machine learning models trained on genomic and phenotypic data to identify causal variants among tens of thousands per patient, and applies a random forest model to classify pathogenicity and generates evidence-based scores for dominant and recessive diseases.
Abstract
Genome sequencing enables accurate detection of genetic variants and is transforming rare disease diagnostics. While data generation is scalable, prioritization and clinical interpretation remain challenging, often requiring expert manual classification. AI-driven decision support systems are therefore needed to assist in causal variant identification or to fully automate large-scale re-analysis of unsolved cases. Existing tools often estimate variant impact on protein function, but few integrate genomic, phenotypic, and clinical annotation data for diagnosis. We present aiDIVA, an ensemble-AI combining statistical and machine learning models trained on genomic and phenotypic data to identify causal variants among tens of thousands per patient. aiDIVA applies a random forest model to classify pathogenicity and generates evidence-based scores for dominant and recessive diseases. These predictions are integrated with clinical metadata to prioritize the most likely causal variants. Large language models further refine and explain results. The aiDIVA-meta model consolidates all scores into a ranked list. aiDIVA-meta reported the causal variant among the top-3 candidates in 97.4% of a pre-training collected cohort with prior evidence in ClinVar or HGMD, and in 93.3% of a post-training collected cohort of previously unreported variants.
A machine learning algorithm called RankVar is developed to prioritize causative variants for rare diseases, based on clinical notes and genome/exome sequencing profiles, and may provide a useful framework for prioritizing variants in monogenic or oligogenic diseases.
Yuan Zhang, Mian Umair Ahsan, Peng Wang et al.· Genome Medicine· 1 citation
A clinically oriented, pipeline-based synthesis of contemporary AI applications in genomic medicine, focusing on factors that determine model robustness and clinical utility, and common sources of failure in real-world genomic AI systems.
Alexandra-Maria Blaga, Răzvan-Octavian Mihuț, A. Treteanu et al.· International Journal of Mol...· 0 citations
A multi-tier, explainable AI framework designed to risk-stratify patients and predict overall survival using clinical and genomic covariates is developed and demonstrates that explainable machine learning models can robustly predict survivability and highlight actionable features for oncology dashboards.
A probabilistic gradient boosting model on variant pathogenicity prediction that applies biological characteristics at both level of DNA and protein levels while also scaling the level of uncertainty in clinical decision making is presented.
Karthik V, S. Prejesh, Sumedh Deepak Kudale et al.· Frontiers in Digital Health· 0 citations
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.
Nayeema Nizamuddin, Soham Biswas, Akshaykumar Zawar et al.· Frontiers in Systems Biology· 0 citations
With continued progress in precision medicine and genomics, these AI genomic tools are likely to be integrated more into medical genetics practice, rather than remaining restricted to specialised or experimental settings.
R. Sadanand, N. Gupta· Indian Journal of Pediatrics· 1 citation
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