ProteinSolver
ProteinSolver designs protein sequences that fold into specified three-dimensional geometries by applying deep graph neural networks to the protein sequence design problem.
Key Features:
- Deep Graph Neural Networks: Employs a graph neural network architecture to model protein sequence design as a constraint satisfaction problem (CSP).
- Extensive Training Dataset: Trained on a dataset of over 70 million real protein sequences corresponding to more than 80,000 known structures.
- Rapid Sequence Design: Generates candidate protein sequences rapidly that conform to specified target geometries.
- In Silico Benchmarking: Evaluates designed sequences using energy-based scores, molecular dynamics simulations, and structure prediction methods.
- Experimental Validation: Demonstrated proof-of-principle by generating sequences matching the serum albumin structure, with top designs synthesized and assessed by circular dichroism.
Scientific Applications:
- Protein engineering: Produces novel sequences for engineering proteins with defined structural frameworks.
- Structural biology: Tests hypotheses about sequence–structure relationships and folding outcomes.
- Synthetic biology: Supplies designed protein sequences for constructing synthetic biomolecular systems.
- Drug discovery: Supports design of protein scaffolds and potential binders relevant to therapeutic development.
- Enzyme design: Enables design of enzymes with tailored structures for specific catalytic functions.
- Biomaterials: Facilitates creation of protein-based biomaterials with specified geometries.
Methodology:
Frames protein sequence design as a constraint satisfaction problem and applies deep graph neural networks; trained on >70 million sequences corresponding to >80,000 structures; evaluates designs using energy-based scores, molecular dynamics simulations, and structure prediction methods.
Topics
Details
- Added:
- 1/18/2021
- Last Updated:
- 3/18/2022
Operations
Publications
Strokach A, Becerra D, Corbi-Verge C, Perez-Riba A, Kim PM. Fast and Flexible Protein Design Using Deep Graph Neural Networks. Cell Systems. 2020;11(4):402-411.e4. doi:10.1016/j.cels.2020.08.016. PMID:32971019.
PMID: 32971019