Unite genomics and AI for precision, personalised medicine.
AI in Genomics & Personalized Medicine sits at the meeting point of two revolutions: cheap genome sequencing and powerful machine learning. You learn to apply AI to genomic data — interpreting variants, predicting their functional and clinical impact, and modelling risk — and to integrate genomics with clinical data to guide individualised treatment. The course connects these to real precision-medicine applications, especially in oncology and pharmacogenomics, and to the fairness and privacy such decisions require. You finish able to reason about an AI genomics-to-treatment workflow. A verified e-Certificate of competency and e-Marksheet from the Deep Science & Technology Consortium.
This course covers AI in genomics and personalized medicine — integrating genomic data with machine learning to interpret variants and tailor treatment to the individual.
1. Interpret genomic variants with AI.
2. Predict functional and clinical impact.
3. Model genomic disease risk.
4. Integrate genomics with clinical data.
5. Guide individualised, fair treatment.
• Genomics and biomedical researchers
• Clinical and bioinformatics professionals
• Precision-medicine and biotech teams
• Students of genomic medicine
• An understanding of AI in genomic medicine.
• A genomics-to-treatment perspective.
• A precision-medicine foundation.
• A verified e-Certificate of competency and e-Marksheet from the Deep Science & Technology Consortium.
• Platform characteristics and their error profiles: short read, long read and their trade-offs
• FASTQ, BAM and VCF: what each stores and where information is lost
• Alignment and variant calling with GATK best practices
• Quality control gates that must pass before any model sees the data
• Annotation with VEP or ANNOVAR; transcript choice changes the answer
• Population frequency filtering with gnomAD and ancestry-matched controls
• ACMG/AMP classification criteria and evidence weighting
• In-silico predictors including CADD, REVEL and AlphaMissense, and how much to trust them
• Feature engineering on variant, expression and multi-omic data
• Class imbalance in rare-disease and biomarker problems
• Cross-validation that respects population structure and relatedness
• Data leakage: the most common reason a genomics model fails in the clinic
• CNNs for regulatory element and chromatin prediction
• DeepVariant and learned variant calling
• Long-range architectures for expression prediction from sequence
• Splice-effect prediction with SpliceAI and interpreting its scores
• Constructing polygenic risk scores and their poor portability across ancestries
• Pharmacogenomic star-allele calling and CPIC guideline implementation
• Embedding results in clinical decision support without alert fatigue
• Analytical and clinical validation of an AI-assisted genomic test
• Explainability requirements when a model informs a clinical decision
• Ancestry representation and how unrepresentative training data harms patients
• Consent, data governance and compliance under GDPR and India's DPDP Act
| Parameter | Requirement |
|---|---|
| Covered Tool / Platform | BWA |
| Covered Tool / Platform | SAMtools |
| Covered Tool / Platform | GATK |
| Covered Tool / Platform | FastQC |
| Covered Tool / Platform | Trimmomatic |
| Covered Tool / Platform | R/Bioconductor |
| Covered Tool / Platform | IGV |
| Covered Tool / Platform | PLINK |
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