Day 1: Protein Sequence Identification, Structural Annotation & Research Data Preparation
Topics Covered
Protein sequence–structure–function relationships.
AI-based structural biology and the development of AlphaFold models.
Protein identification and functional annotation using UniProt.
Protein sequence retrieval and FASTA preparation.
Experimental structure identification through RCSB PDB.
Accessing available predicted structures from AlphaFold DB.
Protein domain organization and conserved sequence regions.
Introduction to Python-based sequence analysis in Google Colab.
Hands-On: Protein Sequence Analysis Using Google Colab
Participants will build a guided Google Colab notebook to retrieve protein sequences, calculate basic physicochemical properties, inspect available structural information, and visualize a selected protein.
Tools: Google Colab | Python | Biopython | UniProt | RCSB PDB | AlphaFold DB
Expected Output: An annotated protein sequence, physicochemical property summary, available structure information, and an executable research notebook.
Day 2: AI-Powered Protein Structure Prediction & Confidence Evaluation
Topics Covered
AlphaFold 3 architecture and protein structure prediction principles.
Overview of protein folding and model input requirements.
Preparing sequences for AI-based protein structure prediction.
Understanding pLDDT, PAE, and pTM confidence metrics.
Interpreting high- and low-confidence structural regions.
Downloading and processing predicted molecular structures.
Structural alignment against reference structures.
Introduction to RMSD and TM-score for evaluating structural similarity.
Limitations of AI-predicted protein models.
Hands-On: Computational Protein Structure Evaluation in Google Colab
Participants will use a guided Colab notebook to analyze suitable precomputed or appropriately licensed structural predictions.
Practical Activities
Load a protein structure file in PDB/mmCIF format.
Extract residue-level confidence scores where available.
Visualize protein regions by structural confidence.
Generate confidence distribution plots.
Compare a predicted structure with a reference structure.
Interpret alignment quality and structural deviations.
Tools: Google Colab | Python | Biopython | Matplotlib | Mol* | Licensed Structure Datasets
Expected Output: Three-dimensional protein visualization, confidence plots, structural comparison results, and an evaluation notebook.
Day 3: Biomolecular Interaction Analysis & Research-Ready Structural Reporting
Topics Covered
Fundamentals of protein–protein complexes.
Protein interaction interfaces and residue contacts.
AlphaFold 3 capabilities for biomolecular interaction prediction.
Understanding inter-chain PAE and ipTM.
Identifying candidate protein interaction regions.
Structural contact analysis using Python.
Interpreting interface quality and structural uncertainty.
Applications in drug target research and molecular biology.
Reproducibility and scientific reporting of AI-predicted structures.
Hands-On: Protein Interface and Interaction Analysis in Google Colab
Participants will investigate a selected protein complex using appropriately licensed structural data and computational analysis.
Practical Activities
Import a protein complex structure.
Identify protein chains and interface residues.
Calculate candidate inter-chain contacts using Python.
Visualize the predicted or experimentally determined protein interface.
Interpret available model confidence metrics.
Prepare figures and summarize findings in a mini research report.
Tools: Google Colab | Python | Biopython | NumPy | Matplotlib | Mol*
Expected Output: Protein interface analysis, residue-contact summary, annotated structural figures, and a research-ready report.