Bioreactor Selection Guide for Scale-Up
If I had to cut this decision down to one line, it would be this: pick the bioreactor that keeps cell behaviour stable as volume climbs, not the one that...
Worlds First Cultivated Meat B2B Marketplace: Read Announcement
If I had to cut this decision down to one line, it would be this: pick the bioreactor that keeps cell behaviour stable as volume climbs, not the one that...
If I had to cut this article to one point, it would be this: at bioreactor scale, single-point monitoring stops being enough. Once you move past small bench vessels, mixing...
For cultivated meat R&D teams, producing structured whole-cuts like steaks or fillets requires more than just growing cells. The key lies in chassis cells - muscle, fat, and connective tissue...
Key Contaminants: Bacteria, fungi, mycoplasma, viruses, cross-cell line contamination, and endotoxins. Detection: Use real-time monitoring (pH, dissolved oxygen, turbidity), molecular testing (qPCR, ELISA), and AI-driven systems for early identification. Response...
Epigenetic silencing is transforming how we approach cultivated meat production. For R&D professionals, it offers a way to control gene expression without permanently altering DNA, addressing key challenges like cell...
Ribosome engineering is reshaping cultivated meat production by improving protein synthesis at the cellular level. Ribosomes, the cell's protein factories, are critical for producing the actin, myosin, and other proteins...
For bioprocess engineers and cultivated meat researchers: Maintaining precise pH (6.8–7.4) and dissolved oxygen (DO) levels is critical in bioreactors for cultivated meat production. Optical sensors are transforming how these...
Scaffold wettability directly impacts cell attachment, growth, and tissue formation in cultivated meat production. For anchorage-dependent cells like myoblasts, the scaffold's surface must support protein adsorption, which in turn facilitates...