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Trusted by Leading Research & Pharma Institutions

Computational Protein Design Services

Transform your research with cutting-edge AI-driven protein design. Our platform combines deep learning models including ProteinMPNN and RFdiffusion with physics-based Rosetta methods to generate novel proteins with atomic-level precision. From de novo scaffold design to functional optimization, we deliver ready-to-test protein candidates validated by structural prediction.

52.4% Sequence Recovery
De Novo Design
AlphaFold Validated
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Trusted by leading research and pharmaceutical institutions

MIT
Pfizer
Stanford
Roche
Johns Hopkins
Merck

Why Choose Us

52.4% sequence recovery vs Rosetta 32.9%
RFdiffusion de novo backbone generation
Computational structure validation
Full IP rights to designed sequences

De Novo Design

Generate novel protein backbones from scratch

Sequence Optimization

ProteinMPNN for high-fidelity sequence design

Functional Engineering

Stability, affinity, and specificity enhancement

Success Rate
100x
Service Overview

AI-Powered Computational Protein Design

Our platform integrates state-of-the-art deep learning models with validated experimental workflows to design novel proteins with atomic precision.

Deep Learning Foundation Models

We leverage cutting-edge AI models including ProteinMPNN for sequence design and RFdiffusion for backbone generation. These models achieve 52.4% native sequence recovery, significantly outperforming traditional Rosetta methods at 32.9%.

  • ProteinMPNN: High-fidelity sequence generation
  • RFdiffusion: De novo backbone design
  • AlphaFold2: Structure validation

Physics-Based Validation

Every designed protein undergoes rigorous validation using AlphaFold2 structure prediction and Rosetta energy scoring. This dual approach ensures both high sequence fidelity and biophysical stability.

  • pLDDT > 90 for high-confidence designs
  • Rosetta energy minimization
  • RMSD < 2 Å to design models

De Novo Scaffolds

Generate entirely new protein architectures not found in nature.

Target Binding

Design proteins with specific binding interfaces for therapeutic targets.

Stability Engineering

Optimize thermal stability and expression yields.

Ready to Design Your Next Protein?

Get a customized quote for your computational protein design project.

Technology Platform

Advanced AI-Driven Design Methods

Our platform combines the best of deep learning and physics-based modeling for superior protein design.

ProteinMPNN

Message passing neural network for high-fidelity protein sequence design. Achieves 52.4% native sequence recovery compared to 32.9% for Rosetta.

  • Order-agnostic autoregressive decoding
  • Multi-chain and symmetry-aware
  • Backbone noise training

RFdiffusion

Denoising diffusion probabilistic model for de novo protein backbone generation. 100x higher success rate than competing methods.

  • Symmetric architecture design
  • Up to 60-subunit assemblies
  • Functional site conditioning

AlphaFold2 Validation

Structure prediction for computational validation of all designs. Ensures designed sequences fold correctly.

  • pLDDT confidence scoring
  • RMSD to design models
  • PAE for interface accuracy

Integrated Design Pipeline

1

Backbone Generation

RFdiffusion creates novel scaffolds

2

Sequence Design

ProteinMPNN optimizes sequences

3

Structure Validation

AlphaFold2 verifies folding

4

Filter & Rank

Select best candidates

Service Specifications

Design Capabilities & Parameters

Our computational protein design service supports a wide range of design challenges.

Parameter Specification Notes
Sequence Recovery Up to 52.4% vs 32.9% Rosetta baseline
Protein Size Range 50 - 600+ amino acids RFdiffusion validated range
Assembly Complexity Monomers to 60-subunit complexes Symmetric and asymmetric
Design Success Rate 100x higher than competing methods For target binding proteins
Structure Validation pLDDT > 90, RMSD < 2 Å AlphaFold2 metrics
Design Types De novo, Redesign, Interface Single and multi-chain
Output Format FASTA, PDB, Analysis Report Ready for synthesis
Validation Methods AlphaFold2, Rosetta, MD Multi-method verification

Supported Design Challenges

  • De novo protein scaffold generation
  • Target-specific binding protein design
  • Protein-protein interface engineering
  • Enzyme active site redesign
  • Stability and solubility optimization

Quality Control Standards

  • AlphaFold2 structure prediction validation
  • Rosetta energy scoring and filtering
  • Design model RMSD analysis
  • Stereochemical quality checks
  • Aggregation and solubility predictions
Service Workflow

End-to-End Design Pipeline

From your protein design challenge to validated sequence candidates ready for experimental testing.

1

Project Assessment

Define design goals, constraints, and target properties for your protein engineering project.

2

Computational Design

RFdiffusion generates backbones; ProteinMPNN designs sequences using AI models.

3

Structure Validation

AlphaFold2 predicts structures; filter by pLDDT and RMSD metrics.

4

Ranking & Selection

Prioritize candidates by stability, binding affinity, and expression potential.

5

Deliverables

FASTA sequences, PDB models, validation reports, and experimental recommendations.

What You Get

Sequence Files

FASTA format ready for gene synthesis

Structure Models

PDB files with AlphaFold2 validation

Analysis Report

Comprehensive design metrics and rankings

Recommendations

Next-step experimental guidance

APPLICATIONS

Research Applications

Computational protein design enables diverse applications across research, therapeutics, and industrial biotechnology.

10x
Catalytic Activity
+70°C
Thermal Stability
5-12
pH Range
52.4%
Seq. Recovery

Industrial Enzyme Optimization

Enhance enzyme performance for industrial processes including thermostability, pH tolerance, and solvent resistance.

  • Thermostable enzyme variants for high-temperature processes
  • Solvent-tolerant lipases and proteases
  • High-expression constructs for cost reduction

Catalytic Efficiency

Design enzymes with improved catalytic properties for sustainable manufacturing and green chemistry applications.

  • Enhanced turnover rates (kcat)
  • Modified substrate specificity
  • Reduced cofactor requirements

Metabolic Pathway Engineering

Optimize enzymes for metabolic engineering and biosynthetic pathway design in microbial cell factories.

  • Cascade enzyme coordination
  • Flux-balanced pathway enzymes
  • Pathway bottleneck elimination

Novel Fold Design

Generate entirely new protein architectures for structural biology research and protein engineering.

  • De novo backbone generation
  • Symmetric assembly design
  • Functional site integration

Binding Interface Design

Create precise protein-protein interaction interfaces for structural studies and inhibitor design.

  • Hotspot residue targeting
  • Interface shape complementarity
  • Computational epitope mapping

Stabilization Design

Stabilize flexible or challenging proteins for crystallography and cryo-EM studies.

  • Rigidity insertion strategies
  • Crystallization helper design
  • Dynamic domain freezing
Testimonials

What Researchers Say

Trusted by scientists working on cutting-edge protein engineering projects.

"The de novo design capability transformed our vaccine project. We generated novel immunogen scaffolds that would have been impossible to find in nature."

Senior Scientist

Biopharmaceutical Company

"ProteinMPNN sequence recovery rates exceeded our expectations. The designed enzymes showed excellent expression and catalytic activity right away."

Research Director

Synthetic Biology Company

"The combination of RFdiffusion and AlphaFold validation gave us confidence in our designs before sending them for synthesis. Great workflow."

Principal Investigator

Academic Research Institution

Scientific Literature

Supporting Research

Our services are grounded in peer-reviewed publications advancing the field of computational protein design.

1,250+ Citations

Robust deep learning-based protein sequence design using ProteinMPNN

Dauparas J, Anishchenko I, Bennett N, et al.

Science, 2022

View DOI
680+ Citations

De novo design of protein backbones with RoseTTAFold diffusion

Watson JL, Juergens D, Bennett NR, et al.

Nature, 2023

View DOI
85+ Citations

Multistate and functional protein design using RoseTTAFold sequence space diffusion

Lisanza SL, Gershon JM, Tipps SWK, et al.

Nature Biotechnology, 2024

View DOI
42+ Citations

De novo protein design with a denoising diffusion network independent of pretrained structure prediction models

Liu Y, Wang S, Dong J, et al.

Nature Methods, 2024

View DOI
156+ Citations

Generalized biomolecular modeling and design with RoseTTAFold All-Atom

Krishna R, Wang J, Ahern W, et al.

Science, 2024

View DOI
FAQ

Frequently Asked Questions

Find answers to common questions about computational protein design services.

What is computational protein design?

Computational protein design uses AI and physics-based methods to create novel protein sequences and structures with desired properties. Modern approaches combine deep learning models (like ProteinMPNN for sequence design and RFdiffusion for backbone generation) with structure prediction tools (like AlphaFold2) to design proteins not found in nature.

How does ProteinMPNN compare to Rosetta?

ProteinMPNN achieves 52.4% native sequence recovery compared to 32.9% for Rosetta's fixed backbone design. It also runs orders of magnitude faster (~1 second per sequence vs minutes for Rosetta) and requires less expert customization. Importantly, ProteinMPNN designs have been shown to rescue previously failed Rosetta designs.

What protein sizes can be designed?

RFdiffusion has been validated for proteins ranging from 50 to over 600 amino acids. The method can design both simple monomers and complex assemblies with up to 60 subunits. For very large proteins, modular design approaches can be used.

How are designed proteins validated?

All designs undergo rigorous computational validation including AlphaFold2 structure prediction, pLDDT scoring (>90 for high confidence), RMSD analysis to design models, and Rosetta energy scoring. Designs with atomic-level accuracy have been validated by X-ray crystallography and cryo-EM.

What deliverables are provided?

Deliverables include designed sequences in FASTA format ready for gene synthesis, PDB structure files, comprehensive analysis reports with rankings and metrics, validation data, and recommendations for experimental follow-up. Full IP rights to all designed sequences are transferred to the client.

Can you design proteins that bind specific targets?

Yes. RFdiffusion can be conditioned to design proteins with binding interfaces for specific targets. By providing hotspot residues from the target, the model generates scaffolds with pockets that complement the target surface. These designs have been validated to achieve nanomolar binding affinities.

What is the typical project timeline?

Project timelines vary based on complexity. Simple redesign projects can be completed within 1-2 weeks. Complex de novo design campaigns targeting specific functions may take 4-8 weeks. We provide detailed timelines during project scoping based on your specific requirements.

Do you offer experimental validation services?

Our core service focuses on computational design and validation. We can recommend experimental partners for gene synthesis, protein expression, and functional testing. Many clients combine our designs with their internal capabilities or partner labs for experimental validation.

Ready to Start Your Protein Design Project?

Get a customized quote for your computational protein design needs.

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Ready to Start Your Project?

Get a customized quote for your Computational Protein Design Services project. Our experts will respond within 24 hours.

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