Thank you for sending your enquiry! One of our team members will contact you shortly.
Thank you for sending your booking! One of our team members will contact you shortly.
Duration 7 hours
Course Outline
Introduction to AlphaFold & Its Impact on Biological Research
- The evolution of protein structure prediction: shifting from homology modeling to deep learning advancements
- AlphaFold’s contribution to accelerating structural biology, drug discovery, and functional annotation
- Setting realistic expectations: understanding capabilities, limitations, and integration points for experiments
- Practical Exercise: Exploring the AlphaFold Protein Structure Database (AFDB) interface and conducting initial sequence searches
How Does AlphaFold Work? Architecture & Core Components
- Neural network architecture: detailing the Evoformer, structure module, and attention-based sequence modeling
- Generating Multiple Sequence Alignments (MSAs) and matching templates (PDB, UniRef, BFD)
- Understanding confidence metrics: explaining pLDDT (per-residue confidence) and PAE (predicted aligned error)
- Practical Exercise: Mapping AlphaFold’s workflow stages using a sample protein sequence and tracking MSA/template inputs
Accessing AlphaFold: Platforms, Notebooks & Deployment
- Official deployment avenues: AlphaFold DB, public API, Colab notebooks, and local/GPU environments
- Configuring a reproducible Colab environment: installing dependencies, allocating GPUs, and formatting inputs
- Preparing protein sequences: understanding FASTA structure, handling chains, and considering multi-domains
- Practical Lab: Deploying the official AlphaFold Colab notebook, uploading a custom FASTA file, and starting the first prediction run
AlphaFold Protein Structure Database & Public Resources
- Navigating AFDB: reviewing organism coverage, structure quality, and download formats (PDB/mmCIF, unrelaxed/pLDDt files)
- Cross-referencing AFDB with UniProt, PDB, and functional databases such as GO, KEGG, and CATH
- Managing large-scale datasets: understanding batch prediction limits, citation guidelines, and data licensing
- Practical Exercise: Extracting high-confidence AFDB models for a specific pathway and preparing files for downstream analysis
Interpreting AlphaFold Predictions & Confidence Metrics
- Reading pLDDT heatmaps: identifying structured cores, disordered regions, and low-confidence domains
- Decoding PAE matrices: detecting domain boundaries, intra/inter-chain interactions, and potential misfolding areas
- Determining prediction reliability: assessing sequence coverage, evolutionary depth, and known structural homologs
- Practical Exercise: Evaluating pLDDT/PAE outputs for a multi-domain protein, identifying low-confidence regions, and planning mutagenesis/validation targets
AlphaFold Open Source Code & Customization Pathways
- Exploring repository structure: core modules, data pipelines, and configuration files
- Modifying inputs: applying custom MSAs, template overrides, and adjusting confidence thresholds
- Optimizing performance: reducing runtime, managing memory, and saving checkpoints
- Practical Lab: Executing a modified AlphaFold pipeline in Colab with custom template constraints and exporting refined PDB files
AlphaFold Use Cases in Biological Research & Experimental Integration
- Using predicted models to guide mutagenesis, crystallization, and cryo-EM grid planning
- Functional annotation: mapping active sites, preparing for ligand docking, and predicting interfaces
- Addressing limitations & verification: knowing when to trust predictions, when to validate experimentally, and avoiding common pitfalls
- Workshop: Designing an experimental validation workflow for a predicted structure and aligning AI outputs with wet-lab assays
Summary, Capstone Application & Next Steps
- Consolidating key concepts: architecture, interpretation, and practical deployment
- Capstone: Participants select a protein of interest, generate or retrieve a prediction, interpret confidence metrics, and outline a research application plan
- Open Q&A, troubleshooting common errors, and distributing resources
- Future directions: integrating AlphaFold3, RoseTTAFold, trRosetta, and other community tools
Requirements
- A solid understanding of protein structures
- Recommended familiarity with foundational molecular biology concepts, including amino acid sequences, folding principles, and PDB/mmCIF formats
- Confidence in navigating web-based notebooks and executing code cells within a browser
Target Audience
- Biologists, molecular researchers, and structural biology specialists
- Experimental scientists looking to use computational structure predictions to guide wet-lab workflows
- Life science professionals integrating AI-driven modeling into hypothesis generation and experimental design