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COMPUTATIONAL IMMUNOLOGY FOR NEXTGEN VACCINE

By the end of this training, participants will be able to: 1. Understand vaccine development, immunology and computational vaccinology. 2. Retrieve and analyse biological and immunological datasets using IEDB, UniProt, ViPR and PDB. 3. Perform B-cell and T-cell epitope prediction and HLA population coverage analysis. 4. Apply Python, machine learning and deep learning techniques to epitope prediction. 5. Analyse protein structures using AlphaFold2, PyMOL and molecular docking tools. 6. Understand AI-assisted mRNA design, generative protein modelling and vaccine optimization. 7. Develop an integrated computational multi-epitope vaccine design pipeline. 8. Prepare scientific reports, visualizations and research presentations. CONTACT NO. 7404068180

All Levels 9 Weeks 0 Lessons 0 Learners English
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9 WeeksCourse duration
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80%Completion rule
COURSE OVERVIEW

About this course

Everything you need to understand the course before you begin.

Week 01: Vaccine Science & AI Foundations

  1. Day 01: Introduction to vaccine types – live attenuated, inactivated, subunit, mRNA and viral vector vaccines.
  2. Day 02: Traditional vaccine development pipeline – major stages, timelines, challenges and bottlenecks.
  3. Day 03: Immunology fundamentals – antigens, antibodies, B-cells, T-cells and immune responses.
  4. Day 04: Applications of AI in vaccine development – target identification, antigen design, clinical trials and manufacturing.
  5. Day 05: AI, ML and Deep Learning fundamentals for biological applications – supervised learning, unsupervised learning and deep learning architectures.

Week 02: Immunoinformatics & Biological Databases

  1. Day 06: Introduction to immunoinformatics – epitopes, MHC binding and B-cell/T-cell epitopes.
  2. Day 07: Biological databases – IEDB, ViPR, UniProt and PDB; pathogen and antigen data retrieval.
  3. Day 08: B-cell epitope prediction using BepiPred and ABCpred.
  4. Day 09: T-cell epitope prediction using NetMHCpan and MHCflurry.
  5. Day 10: Antigenicity, allergenicity and toxicity prediction; introduction to HLA allele frequencies and population coverage analysis.

Week 03: Biological Data Processing & Python for Vaccine Design

  1. Day 11: Python fundamentals for bioinformatics – Biopython and biological sequence handling.
  2. Day 12: Biological data formats – FASTA, VCF and epitope datasets; data cleaning and preprocessing.
  3. Day 13: Pandas for epitope datasets – feature extraction and feature engineering.
  4. Day 14: Hands-on epitope prediction – SARS-CoV-2 Spike protein sequence retrieval and B-cell/T-cell epitope analysis.
  5. Day 15: HLA population coverage analysis and preparation of epitope datasets for machine learning.

Week 04: Machine Learning for Epitope Prediction

  1. Day 16: Introduction to machine learning applications in immunoinformatics and epitope classification.
  2. Day 17: Random Forest and Support Vector Machine (SVM) for epitope versus non-epitope classification.
  3. Day 18: Model evaluation – accuracy, precision, recall, F1-score, ROC curves and PR curves for imbalanced datasets.
  4. Day 19: Regression approaches for immunogenicity prediction and feature selection.
  5. Day 20: Clustering and dimensionality reduction – UMAP and t-SNE; hands-on ML model development for epitope classification.

Week 05: Deep Learning & Structural Vaccinology

  1. Day 21: Protein structure fundamentals – PDB, primary to quaternary structure and AlphaFold2.
  2. Day 22: Structural vaccinology – 3D epitope mapping and visualization of antigen structures.
  3. Day 23: CNN architectures for protein sequence analysis and antigenicity prediction.
  4. Day 24: Graph Neural Networks (GNNs) for protein representation and protein graph analysis; introduction to GraphProt concepts.
  5. Day 25: Protein language models – ESM-2 and ProtBERT embeddings; antigen-antibody molecular docking using HADDOCK and hands-on AlphaFold2/PyMOL visualization.

Week 06: mRNA Vaccine Design & Generative AI

  1. Day 26: Fundamentals of mRNA vaccine design – codon optimization, UTRs and RNA structure.
  2. Day 27: AI-assisted mRNA optimization – LinearDesign and codon usage models.
  3. Day 28: RNA secondary structure prediction, stability analysis and machine learning applications.
  4. Day 29: Lipid nanoparticle (LNP) formulation, delivery systems and AI-based optimization concepts.
  5. Day 30: Generative AI for protein design – RFdiffusion and ProteinMPNN; LLM-based literature mining for vaccine target identification; hands-on optimized mRNA sequence design for a selected epitope.

Week 07: Clinical Trials, Manufacturing & Regulatory Science

  1. Day 31: AI in clinical trials – patient recruitment, trial optimization and adverse-event prediction.
  2. Day 32: Real-world data analysis – vaccine effectiveness modelling and outcome prediction.
  3. Day 33: AI in vaccine manufacturing – bioreactor optimization, quality control and process monitoring.
  4. Day 34: Vaccine ethics, biosafety and regulatory frameworks – FDA, WHO and AI model validation.
  5. Day 35: Case study – Moderna's mRNA vaccine platform and AI-assisted vaccine development pipeline.

Week 08: Advanced Vaccine Case Studies & Capstone Development

  1. Day 36: Case study – reverse vaccinology and development of the MenB Bexsero vaccine.
  2. Day 37: Capstone Project – pathogen selection, literature review and antigen identification.
  3. Day 38: Multi-epitope vaccine design – B-cell/T-cell epitope selection, HLA coverage and linker/adjuvant selection.
  4. Day 39: Development of an ML/DL-based epitope prediction pipeline and candidate prioritization.
  5. Day 40: Structural analysis, molecular docking and visualization of selected vaccine candidates.

Week 09: Capstone Completion, Deployment & Research Presentation

  1. Day 41: Capstone – integration of immunoinformatics, machine learning and structural analysis results.
  2. Day 42: Result interpretation, validation strategy and comparison with published vaccine research.
  3. Day 43: Research report writing, scientific figures, molecular visualization and GitHub documentation.
  4. Day 44: Final presentation preparation, project demonstration and scientific discussion.
  5. Day 45: Final project presentation, future trends – pan-virus vaccines, AI agents and next-generation computational vaccine design.


COURSE CURRICULUM

What you will learn

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