DISS

MCE Tumor Tissue Dissociation Solution is able to gently and efficiently dissociate tumor tissue samples into cell suspensions or cell aggregates, which can then be used for the subsequent construction of tumor organoids.

MCE Tissue Dissociation Solution is able to gently and efficiently dissociate tissue samples into cell suspensions or cell aggregates, which can then be used for the subsequent construction of tumor organoids.

MCE Organoid Dissociation Solution is versatile and suitable for routine dissociation and passaging of organoids derived from various mammals (including humans, mice, pigs, cows, and more).

MCE Cardiomyocyte Dissociation Solution is specifically designed for the dissociation of cardiomyocytes following PSC differentiation and selection. It contains highly active collagenase, dispase, and neutral protease, which work synergistically with a low concentration of recombinant serine protease to efficiently and gently dissociate densely adherent cardiomyocytes into a single-cell suspension.

MCE ECM Gentle Dissociation Solution is a gentle ECM-degrading enzyme mixture derived from marine bacteria and Bacillus species, specifically formulated for efficient and low-damage digestion of in-vitro cell systems. It selectively degrades extracellular matrix components while minimizing disruption to the cell membrane and intercellular junctions, thereby significantly reducing mechanical stress during dissociation. This product is compatible with a wide range of cell types, including stem cell colonies, primary cells, neural cells, and organoids, and is particularly well suited for gentle yet effective dissociation of brain organoids and other complex 3D structures.

MCE iPSC/ESC Dissociation Solution (Enzyme-Free) is a chelation-based, enzyme-free cell dissociation reagent specifically designed for the culture and manipulation of induced pluripotent stem cells (iPSCs) and embryonic stem cells (ESCs). This optimized solution enables gentle and efficient dissociation of iPSCs/ESCs within 5-8 min, making it suitable for routine passaging, dissociation, and cell-cluster handling. It provides superior stability and better preservation of cell state compared with traditional methods.