Technology

Computational
Design Platform

GPU-accelerated protein design that generates, scores, and validates thousands of candidates before anything touches your bench.

6,194
Designs scored
r = 0.913
KD prediction accuracy
80+
ML experiments automated
5
Epitopes per target

End-to-End Design Pipeline

Target InputStructure or sequence
Backbone Generation1000s of scaffolds
Sequence DesignInverse folding
AI ScoringBinding & stability
Fold ValidationStructure check

Real Data, Not Mockups

These are actual outputs from the platform — not marketing graphics. Every project delivers ranked candidates with binding predictions, structural models, and developability scores.

The platform dashboard shows binding metrics across targets, score distributions, developability analysis, and design tool utilization. What you see here is what you get as a deliverable.

Platform dashboard — binding metrics, score distributions, developability analysis across 2,075 designs

Screen 2,000 Candidates at Once

Every candidate is scored on two axes: predicted binding strength (iPTM) and structural accuracy (iPSAE). The top-right corner is where the best designs live — strong binding and confident structure. Only the top performers make the shortlist.

This is one target, one run. The platform generates and scores this volume routinely, giving you a diverse pool of candidates to choose from — not just one or two shots in the dark.

2,000 nanobody designs — binding vs structure quality scatter plot

Custom-Trained AI Models

The binding affinity predictor is trained on 134K experimental sequences and achieves r = 0.913 correlation with measured KD values. It predicts how tightly a protein binds its target from amino acid sequence alone — no structure needed.

The platform continuously improves. An automated research system runs 80+ ML experiments autonomously, testing architectures, hyperparameters, and training strategies to push prediction accuracy higher.

Binding affinity predictor — r = 0.913
80+ ML experiments run autonomously

Platform Capabilities

Every stage of the design pipeline, from target to candidate.

De Novo Backbone Generation

Diffusion models generate novel protein backbones conditioned on your target's binding surface. Not homology modeling — genuinely new structures designed from scratch.

Inverse Folding

Given a backbone, sequence design algorithms find amino acid sequences that fold into the desired structure. Multiple sequences per backbone, optimized for expression and stability.

AI Binding Prediction

Custom ML models trained on experimental binding data predict binding affinity for every candidate. Validated against lab measurements with strong correlation.

Structure Validation

Every candidate is folded in silico and checked for structural confidence. Designs that don't fold well computationally don't make the shortlist.

Automated Screening

The full pipeline runs autonomously — generate, score, validate, rank. Thousands of candidates processed in hours, not weeks.

Gradient Optimization

For lead optimization, gradient-based methods backpropagate through structure prediction to directly optimize binder sequences for affinity and stability.

Epitope Diversity Built In

The platform doesn't just find one binding mode — it explores the target surface and generates candidates across multiple distinct epitopes. This gives you backup strategies and reduces the risk of a single point of failure.

In one campaign: 270 designs across 5 distinct binding sites, with 150 out of 2,000 passing every quality filter — binding, structure, stability, and manufacturability.

270 designs across 5 distinct binding sites
150 out of 2,000 passed every quality filter

Want to See What This Can Do for Your Target?

Book a free 30-minute call. Bring your target structure or sequence—I'll give you an honest assessment.