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Get tips on using PRO-PREP™ Protein Extraction Solution (C/T) to perform Protein isolation Mammalian cells - 3T3-L1

Products iNtRON Biotechnology PRO-PREP™ Protein Extraction Solution (C/T)

Get tips on using VWR Life Science RIPA Lysis Buffer, Biotechnology Grade to perform Protein isolation Mammalian cells - Caco-2

Products VWR VWR Life Science RIPA Lysis Buffer, Biotechnology Grade

Get tips on using EasySep™ Human Cord Blood CD34 Positive Selection Kit II to perform Cell Isolation CD34+ cells

Products STEMCELL technologies EasySep™ Human Cord Blood CD34 Positive Selection Kit II

Get tips on using CelLytic™ NuCLEAR™ Extraction Kit to perform Protein isolation Mammalian cells - Human eutopic endometrial stromal cells

Products Sigma-Aldrich CelLytic™ NuCLEAR™ Extraction Kit

Get tips on using EZ-10 Spin Column Plasmid DNA Miniprep Kit to perform Plasmid Isolation E. coli-S. cerevisiae transconjugate

Products Bio Basic EZ-10 Spin Column Plasmid DNA Miniprep Kit

Get tips on using PRO-PREP™ Protein Extraction Solution (C/T) to perform Protein isolation Mammalian cells - Mouse Epididymal fat

Products iNtRON Biotechnology PRO-PREP™ Protein Extraction Solution (C/T)

Get tips on using EasySep™ Human B Cell Enrichment Kit II Without CD43 Depletion to perform Cell Isolation B cell

Products STEMCELL technologies EasySep™ Human B Cell Enrichment Kit II Without CD43 Depletion

Get tips on using QuantiTect Virus Kit to perform RNA quantification qPCR

Products Qiagen QuantiTect Virus Kit

Human embryonic stem cells (hESCs) and induced pluripotent stem cells (iPSCs) have been greatly used for studies on embryonic development and cell differentiation.iPSCs provide a stable source for either self-renewal or differentiation into suitable cells when cultured in a particular environment. Pluripotent cell culture was originally started by deriving cells from inner cell mass (ICM) from pre-implanted blastocysts, these were called embryonic stem cells. These cells after isolation can be grown on traditional extracellular matrices (like mouse embryonic fibroblasts, MEFs) or feeder-free culture systems. DMEM/F12 has been the most commonly used basal media in the culture of pluripotent cells. These cells are cultured at normal atmospheric oxygen levels, 21%, however, some studies have proposed that 4% oxygen tension may be better for hESC growth. Higher D-glucose concentration (4.2g/l) and osmolarity (320mOsm) that mimics the natural environment of embryonic tissue are optimal for the growth of hESCs. Supplements like N2 and/or B-27, in the presence of growth factors like bFGF, have been shown to increase pluripotency of these cells. bFGF, FGF2 and other ligands of receptor tyrosine kinases like IGF are also required or maintain self-renewal ability of these cells. TGF𝛃1, by its activation of SMAD2/3 signalling, also represses differentiation of iPSCs. Other compounds like ROCK inhibitors reduce blebbing and apoptosis in these cells to maintain their clonogenicity. However, an inhibitor for LIF (leukaemia inhibitory factor, which is one of the pluripotent genes) has an opposing effect. Therefore, it is important to understand the culture conditions and media composition that affect downstream signalling in hESCs or iPSCs that may lead to their differentiation.

Cell culture media Stem cell culture media Mouse fibroblasts from meninges

Human embryonic stem cells (hESCs) and induced pluripotent stem cells (iPSCs) have been greatly used for studies on embryonic development and cell differentiation.iPSCs provide a stable source for either self-renewal or differentiation into suitable cells when cultured in a particular environment. Pluripotent cell culture was originally started by deriving cells from inner cell mass (ICM) from pre-implanted blastocysts, these were called embryonic stem cells. These cells after isolation can be grown on traditional extracellular matrices (like mouse embryonic fibroblasts, MEFs) or feeder-free culture systems. DMEM/F12 has been the most commonly used basal media in the culture of pluripotent cells. These cells are cultured at normal atmospheric oxygen levels, 21%, however, some studies have proposed that 4% oxygen tension may be better for hESC growth. Higher D-glucose concentration (4.2g/l) and osmolarity (320mOsm) that mimics the natural environment of embryonic tissue are optimal for the growth of hESCs. Supplements like N2 and/or B-27, in the presence of growth factors like bFGF, have been shown to increase pluripotency of these cells. bFGF, FGF2 and other ligands of receptor tyrosine kinases like IGF are also required or maintain self-renewal ability of these cells. TGF𝛃1, by its activation of SMAD2/3 signalling, also represses differentiation of iPSCs. Other compounds like ROCK inhibitors reduce blebbing and apoptosis in these cells to maintain their clonogenicity. However, an inhibitor for LIF (leukaemia inhibitory factor, which is one of the pluripotent genes) has an opposing effect. Therefore, it is important to understand the culture conditions and media composition that affect downstream signalling in hESCs or iPSCs that may lead to their differentiation.

Cell culture media Stem cell culture media Human WA09 hESC

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