Precision Chroma
Pioneers in 3D printed chromatography
We are pioneering a new method of chromatography for efficient and cost-effective purification of biological therapeutics.
Our patented 3D Printed Monolith Adsorption (PMA) columns use design engineered, uniform hydrogels, optimal fluidics and unrestricted pressure to process unclarified cell culture or other solid-laden fluid products.
Creating the next generation of chromatography
After years of research and development and a heap of inspiration from nature, our team of world-class scientists have developed a unique method of chromatography that eliminates key issues faced by industry. Our PMA columns can handle high flow rates with unrestricted pressure, enabling fast processing of large-scale, solids-laden cell culture products. Our ability to tune channel sizes allows us to achieve a high surface area and maximise target binding capacity. With ready-to-use columns that are easily connected in a series, scale and flexibility can be achieved with minimal set-up time. We believe our precision columns will transform the separations industry.
Our technology can be applied to
Anti-bodies
Proteins
DNA
Viruses
Key Benefits
Purification time reduced
With the elimination of clarification, purification time can be reduced.
Yield increased
Losses from clarification steps are eliminated through direct product purification.
Lot-to-lot Reproducibility
Using uniform flow structures ensures consistent and reproducible results.
No pressure restrictions
Design engineered channels reduce pressure restrictions, allowing fast throughput.
Columns connected in series allows flexibility
Individual columns can be replaced quickly to minimize downtime or process change.
Cost substantially reduced
Less processing reduces capital requirements and consumables.
Simplicity
No column packing required – our columns can be inserted into existing column housings.
Chemical Functionality
Columns can been chemically modified with ligands for ion exchange, affinity and multimodal chromatography.