Active Cells, Biochemistry & Physiology Diabetes, Hormones & Metabolism

FATSCAN - Fluorescence-based Adipo Tracking Screening for Cell Nutrition

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Multus Biotechnology and the Roslin Institute are engineering the liquid food that lab-grown cells need to thrive, without using any animal products or genetic modification. The problem is straightforward: growing cells at scale for food, medicine, or materials currently relies on expensive, animal-derived ingredients or genetically modified cells. Both options limit what can be produced sustainably and cost-effectively. This project combines Roslin’s stem cell analysis techniques with Multus’s machine-learning platform to rapidly test and optimise thousands of growth medium recipes. The goal is a first-of-its-kind, animal-component-free formula that supports high-yield, functional cell manufacture. If successful, the impact cuts across industries. Cultured meat could become cheaper and more reliable, reducing pressure on livestock farming. But the same platform could also produce cells for regenerative medicine, bio-based materials, or even energy—replacing petrochemical feedstocks with biological manufacturing. The work is applied, not fundamental science: it directly targets a bottleneck in commercial biomanufacturing, aiming to make cell-based production a practical, scalable alternative for multiple sectors.

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Multus Biotechnology and the Roslin Institute are embarking on a groundbreaking project to achieve high productivity and functionality in resource-efficient biomanufacturing. By leveraging a combination of cutting-edge approaches for stem cell analyses developed at Roslin, together with Multus' MediOP/Machine Learning platform for iterative media formulation screening and optimisation, the partners aim to create first of its kind, highly productive, animal-component-free culture media formulations for functional stem cell manufacture without the need to use genetically modified cells. This innovative approach to growth media optimisation has applications beyond food to enable sustainable, reliable and cost-effective solutions for medicines, materials and energy using biomanufacturing.

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Collaborative R&D

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