Platform

Our lead optimisation platform unlocks high-performing molecules, often with non-intuitive designs.

Building Blocks

The EVA™ Platform

Lead Candidates

Diverse binders
with regards to epitope coverage and affinity 

Linkers
with varying lengths
and flexibilities 

Half-life extension domain 

Vast numbers of antibody designs are evaluated for both function and developability.

T-cell
Engagers

ADCs

NK-cell
Engagers

TCR-based
Engagers

Agonists

Cell Therapies

Radioconjugates

Multispecifics

We can work with any modality, providing there is a high-throughput, disease-relevant, cell-based assay.

What makes this possible?

Closed-loop discovery

Our discovery engine tightly integrates machine learning (ML) with automated functional screening in a closed loop. 

Proprietary ML-grade data

Data from both functional and developability assays fuels a powerful search technique called Multi-Objective Bayesian Optimisation. This form of ML enables us to rapidly evaluate large numbers of multispecifics (>10^5 designs) for both function and developability.

Speed

The ‘design-build-test-learn’ cycle takes <6 weeks. Each antibody panel consists of 2,300 multispecifics. Mass modular cloning combined with in-house sequence verification allows for rapid construct assembly. Each design is expressed in a mammalian host, purified and tested across a suite of in-depth assays for both function and developability.

Flexibility

Our platform is both modality and format-agnostic.

Building Blocks

The EVA™ Platform

Lead Candidates

Dry Lab

In silico design

Antibodies are designed computationally using insights extracted by ML from previous cycles.

Multi-objective optimisation 

Proprietary ML-grade experimental data build and refine predictive models, significantly increasing the number of antibodies evaluated.

<6 weeks

State-of-the-art automation lab

Antibody production 

Up to 2,300 multispecifics are cloned, sequence-verified, expressed in mammalian systems, and purified.

Characterisation

Final-format antibodies are evaluated using high-throughput developability and functional (disease-relevant, cell-based) assays.