UwU7 Biofoundries - Accelerating Synthetic Biology Innovation

Female chemical engineer develops clean energy storage solutions

UwU7 Biofoundries pioneers rapid custom genetic engineering through an automated DBTL platform. Combining machine learning with microfluidic robotics, we transform microorganism development from years to weeks. Partner with us to revolutionize your bioengineering projects.

This image depicted a Centers for Disease Control and Prevention (CDC) scientist interacting with her Caliper LifeSciences’ Zephyr Molecular Biology Workstation, working with samples to be tested using a real-time PCR machine, known as a themocycler (see PHIL 22904), in order to identify the various types of poliovirus contained therein. The data from this analysis is stored in a computer, while the software further analyzes the data before being reviewed by a scientist.

Accelerating Synthetic Biology Innovation

Design and construct tailored genetic modifications to create microorganisms with desired traits for various applications.

3D rendering capturing the double helix structure of DNA against a blue backdrop, with multiple dna helixes forming a background image for presentations.

Custom Genetic Engineering

Develop bespoke synthetic organisms optimized for industrial processes and novel biotechnological solutions.

Custom Organism Fabrication

Apply advanced machine learning techniques to predict and optimize genetic modifications efficiently and accurately.

Machine Learning Genome Models

Leverage end-to-end design-build-test-learn pipelines featuring robotic microfluidics and AI-driven genome modeling.

Automated DBTL Infrastructure

Engineer robust and scalable cellular chassis tailored for industrial biotechnology applications and mass production.

Scientist examines the result of a plaque assay, which is a test that allows scientists to count how many flu virus particles (virions) are in a mixture. To perform the test, scientists must first grow host cells that attach to the bottom of the plate, and then add viruses to each well so that the attached cells may be infected. After staining the uninfected cells purple, the scientist can count the clear spots on the plate, each representing a single virus particle.

Industrial Cellular Chassis Development

Utilize automated screening and machine learning to rapidly enhance microbial strains for improved performance and yield.

Laboratory. Tube (vial) with body material being transported on a track to analyzer in large Dutch lab. 

High-Throughput Strain Optimization

Our Services

Engineering life, accelerating futures with precision and innovation.

Discover the power of synthetic biology today!