Animal dependence
Immunisation-led discovery adds cost, ethical burden and limited control over the starting repertoire.
Technology
Computational design, synthetic library approaches and wet-lab validation in one loop.
The problem
Traditional nanobody discovery can be animal-dependent, slow to iterate and difficult to adapt. Smaller research teams can also struggle to access flexible specialist experimental support.
Immunisation-led discovery adds cost, ethical burden and limited control over the starting repertoire.
Long design-build-test cycles make it expensive to explore alternative binders once a campaign is underway.
Smaller teams often cannot access specialist wet-lab capacity that adapts to the scientific question.
Our approach
One connected loop, so a result at the bench feeds straight back into the next round of design.
Sequence and structure models propose candidates with promising binding and developability characteristics.
Animal-free libraries built to give diverse, target-focused starting points.
Scalable screening identifies and ranks binders against the target of interest.
Expression, stability and specificity assessed early, before downstream commitment.
Technology
We are developing an animal-free nanobody discovery platform that combines computational design, synthetic library approaches and wet-lab validation.
Synthetic repertoires remove the animal step from the front of the campaign and give direct control over the starting diversity.
Computational ranking narrows the candidate set so experimental capacity is spent on sequences worth testing.
Expression, stability and specificity are assessed as selection criteria rather than as late-stage surprises.
Each experimental round is designed to inform the next, shortening the distance between a result and a better candidate.
Whether you want to explore the NanoForge platform or need bespoke experimental support, talk to our scientific team.