University of Bristol, School of Engineering Mathematics and Technology

AI-aided biodesign platforms for
programming biological systems

We develop software, data, and automation workflows to engineer organisms with novel capabilities, from more nutritious and resilient crops to microbiome therapeutics.

Developing, Researching, and Architecting Genetic and GenOmic Networks

Two colored strands of an idealized J23101 B-DNA double helix.
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J23101 promoter · 35 bp · idealized B-DNA model

J23101 promoter · 35 bp · idealized B-DNA model. Chain A, 5′-TTTACAGCTAGCTCAGTCCTAGGTATTATGCTAGC-3′. Chain B, 3′-AAATGTCGATCGAGTCAGGATCCATAATACGATCG-5′.

Infrastructure is at the core

A software ecosystem for the DBTL cycle

We build open source software, standards-enabled metadata, and FAIR data workflows so that biological engineering can become more reproducible, collaborative, and programmable.

DBTL Cycle

Select a workflow stage or the infrastructure core to reveal more information.

Photo 51, X-ray diffraction of DNA (1952), produced by Raymond Gosling under Rosalind Franklin’s supervision.Image source.

Engineering organisms with useful capabilities

Recent outputs

Join / Collaborate

Build open AI-aided biodesign platforms with us

We welcome prospective students, postdocs, collaborators, funders, open-source contributors, and technically curious partners interested in programmable biological systems.