RESEARCH WORKFLOW · 07

Protein Structure Prediction

Generate a structural hypothesis from sequence and biological context, then assess it with confidence measures and independent evidence.

Protein structure prediction can support functional reasoning, mutation design, and experimental planning, but a predicted structure is not an experimentally determined one. Complex state, conformational change, ligands, modifications, and training distribution can affect results. Confidence is not a direct probability of biological correctness.

When this workflow is useful

  • Forming a testable hypothesis without an experimental structure
  • Examining domains, interfaces, or possible effects of variants
  • Preparing candidate conformations for experiments or comparison

A practical sequence

  1. 01

    Define the biological object

    Confirm organism, sequence version, isoform, domains, signal peptides, modifications, and expected assembly. A model cannot repair an input representing the wrong state.

  2. 02

    Inspect sequence and known structures

    Search homologues, conserved regions, and experimental structures. Record database versions, identifiers, and manual trimming.

  3. 03

    Run and interpret prediction

    Distinguish monomer, complex, and local questions; record version and settings. Examine local and global confidence, inter-chain uncertainty, disorder, and alternatives.

  4. 04

    Test against external evidence

    Challenge consequential interpretations with mutagenesis, cross-linking, low-resolution measurements, homologous structures, or suitable experiments. Retain raw outputs.

Quality-control questions

  • Do sequence, isoform, and assembly match the question?
  • Were confidence and disorder inspected by region?
  • Are functional claims independently supported?
  • Is prediction excluded from unvalidated clinical decisions?
Expected outputThe result should be a bounded structural hypothesis with confidence information and a plan for testing it.

RELATED TOOLS

Tools that can support parts of this workflow

Tool inclusion does not replace method selection or validation.

All tools →
Biology & Biomedical Research

AlphaFold

DeepMind's protein-structure prediction system, with open AlphaFold 2 code and a public database of predicted structures.

Open sourceOpen source
proteinsstructure prediction
View tool
Biology & Biomedical Research

ColabFold

An open-source workflow that combines accelerated sequence search with AlphaFold-based structure prediction.

Open sourceOpen source
proteinsstructure prediction
View tool
Biology & Biomedical Research

OpenFold

A trainable open-source implementation of AlphaFold 2 intended for protein-structure research and model development.

Open sourceOpen source
proteinsopen model
View tool
Biology & Biomedical Research

NCBI BLAST

NCBI sequence-search tools for finding local similarity between nucleotide or protein queries and sequence databases.

FreeOpen source
sequence searchbioinformatics
View tool
Biology & Biomedical Research

NVIDIA BioNeMo

A collection of frameworks, models, and deployment tools for generative AI in biomolecular and drug research.

Contact for pricing
biomolecular AIdrug research
View tool
Biology & Biomedical Research

Galaxy

An open web platform for running, documenting, and sharing reproducible computational biology workflows.

Open sourceOpen source
bioinformaticsreproducible workflows
View tool