CELLnTec provides HBLAK, which has become a more conveniently available model for urological research than primary urothelial cultures.
Generate bladder 2D/3D models with long-term cell line HBLAK for advanced urological research
2D Differentiation of Epithelial Cells, Fibroblasts, and Melanocytes With Ease and Accuracy
CELLnTEC’s 2D differentiation media come in a fully supplemented, one-bottle ready-to-use formulation designed to create an environment conducive to cell differentiation.
3 Techniques and 3 Tips to Take High-Quality Microscopy Pictures of Primary Cells
When it comes to primary cell culture, a picture is worth a thousand words. Follow these tips from ScienCell to get quality microscopy images.
StemBioSys CELLvo™ Human Atrial iPS-Cardiomyocytes
CELLvo™ Human Induced Pluripotent Stem Cell-Derived Atrial Cardiomyocytes cultured on CELLvo™ Matrix Plus. Achieve maturation in 7 days.
Leadgene Utilizes LEADSPHERE™ Lyophilization Technology to Make Reagents Stable for Long-Term Logistics – Press release
Leadgene Biomedical has announced the launch of LEADSPHERE™ Lyophilization Technology to aid in the dispense, storage, and transport of their reagents
CELLvo Cells from StemBioSys
CELLvo™ cells from StemBioSys are the only cells isolated and expanded using StemBioSys’s CELLvo™ Matrix technology. By isolating cells on a cell-derived extracellular matrix (ECM), StemBiosys are able to preserve more natural phenotypes. Cells are always isolated from the best
Lipofection
Lipofection is a lipid-based transfection technology which belongs to biochemical methods also including polymers, DEAE dextran and calcium phosphate.
Magnetofection™
Magnetofection™ is a simple and highly effective transfection method to transfect primary and hard-to-transfect cells, manufactured by Oz Biosciences.
CELLvo™ Matrix Plus from StemBioSys
CELLvo™ Matrix Plus from StemBioSys is the next generation of CELLvo™ Matrix technology. Proudly distributed in the UK and Europe by Caltag Medsystems, CELLvo™ matrices are the only substrates that aim to recapitulate the biochemical, structural and mechanical cues of
Creating a Natural Microenvironment for Culturing Islet Cells
Type 1 diabetes is an autoimmune disease that leads to destruction of pancreatic islet cells. For many years, islet transplantation has been the focus of intense investigation as an insulin replacement therapy. Although transplantation immediately achieves insulin independence, the natural