Rebioin AI Rebioin AI Build AI Skill for tomorrow's leader
Computational Sciences

AI POWERED VACCINE DEVELOPMENT FOR BIOPHARMA

AI-Powered Vaccine Development for Biopharma is an 8-week practical training program focused on applying AI, machine learning, and deep learning to modern vaccine research. The course covers immunoinformatics, epitope prediction, structural vaccinology, mRNA vaccine design, and systems immunology. Learners gain hands-on experience with bioinformatics tools and AI models to develop computational vaccine candidates through a research-oriented capstone project.

All Levels 8 Weeks 0 Lessons 0 Learners English
0Learning items
8 WeeksCourse duration
0Active learners
80%Completion rule
COURSE OVERVIEW

About this course

Everything you need to understand the course before you begin.

Week 1: Vaccine Science & AI Foundations

  1. Day 1: Vaccine types — live, inactivated, subunit, mRNA, viral vector, and DNA vaccines
  2. Day 2: Vaccine development pipeline — discovery, preclinical studies, clinical trials, and approval
  3. Day 3: Immunology fundamentals — antigens, antibodies, B/T cells, MHC I/II, and cytokines
  4. Day 4: Applications of AI/ML in target identification, epitope prediction, and mRNA design
  5. Day 5: AI/ML/DL fundamentals, vaccine databases (IEDB, ViPR, UniProt, PDB), and hands-on epitope data exploration

Week 2: Immunoinformatics & Vaccine Data

  1. Day 1: Immunoinformatics, epitope types, MHC binding, immunogenicity, and conservation
  2. Day 2: B-cell epitope prediction using BepiPred, ABCpred, and ElliPro
  3. Day 3: T-cell epitope prediction using NetMHCpan, MHCflurry, and PickPocket
  4. Day 4: Antigenicity, allergenicity, toxicity, and population coverage analysis
  5. Day 5: FASTA/VCF data processing and a hands-on epitope prediction and filtering workflow

Week 3: Python & Machine Learning for Vaccine Design

  1. Day 1: Biopython — sequence analysis, genome parsing, and ORF translation
  2. Day 2: Pandas for epitope datasets and biological feature engineering
  3. Day 3: Epitope classification using Random Forest, SVM, and XGBoost
  4. Day 4: Imbalanced datasets, class weights, SMOTE, and PR-AUC
  5. Day 5: Immunogenicity prediction, clustering, cross-validation, and an ML-based epitope prediction project

Week 4: Deep Learning & Structural Vaccinology

  1. Day 1: Protein structures, PDB, AlphaFold DB, and pLDDT confidence scores
  2. Day 2: Structural vaccinology and epitope visualization using PyMOL
  3. Day 3: CNNs for sequence-based antigenicity prediction
  4. Day 4: Protein graphs, GNNs, and protein language models such as ESM-2 and ProtBERT
  5. Day 5: Antigen–antibody docking concepts, AlphaFold-based structure prediction, and structural visualization practical

Week 5: mRNA Vaccine Design & Generative AI

  1. Day 1: mRNA vaccine structure — 5′ cap, UTRs, ORF, poly-A tail, and codon optimization
  2. Day 2: AI-based mRNA optimization and codon design
  3. Day 3: RNA secondary structure, minimum free energy, and stability analysis using ViennaRNA
  4. Day 4: Lipid nanoparticle delivery prediction and generative AI for antigen design
  5. Day 5: ProteinMPNN, antigen stability concepts, and a computational mRNA design project

Week 6: Systems Immunology & Multi-Omics

  1. Day 1: RNA 3D structure prediction using tools such as RhoFold
  2. Day 2: Molecular dynamics fundamentals and GROMACS for structural stability analysis
  3. Day 3: BCR/TCR repertoire data and ML-based immune response prediction
  4. Day 4: Single-cell RNA-seq and systems immunology network modeling
  5. Day 5: Multimodal AI integrating sequence, structure, HLA, and clinical data; vaccine population-coverage project

Week 7: Clinical Trials & Manufacturing AI

  1. Day 1: AI for clinical trial design, patient recruitment, and synthetic control arms
  2. Day 2: Digital twins and computational immune-response modeling
  3. Day 3: Pharmacovigilance and adverse-event analysis using NLP
  4. Day 4: AI for vaccine manufacturing, bioprocess optimization, quality control, and supply chains
  5. Day 5: Quality by Design, regulatory validation, and industry case studies involving Moderna and BioNTech

Week 8: Research, Portfolio & Career Development

  1. Day 1: Reproducing a vaccine AI research paper, such as DeepVacPred or Vaxign-ML
  2. Day 2: Comparative analysis of mRNA, subunit, and viral-vector vaccine design approaches
  3. Day 3: Deploying an epitope prediction model using FastAPI and Docker
  4. Day 4: Research report writing, technical blogging, and open-source contribution
  5. Day 5: Final project presentation, portfolio development, mock interview, and a six-month research roadmap


COURSE CURRICULUM

What you will learn

Explore the complete learning path, section by section.

0Sections 0Lessons
Curriculum is being preparedPublished lessons will appear here soon.