We offer several kits for expansion and differentiation of multipotent neural stem (NS) cell lines. These kits contain NS cell lines derived from distinct areas of the human central nervous system, including the neural cortex, hindbrain, mid-forebrain, spinal cord, and temporal lobe. Cells can be used for a variety of neuroscience research applications and compound screening assays. Each kit contains cells (~1.5 x 106 cells) and serum-free media optimized for culturing adherent human NS cells.
NOTE: RHB-A medium requires supplementation with Epidermal Growth Factor (EGF) and Fibroblast Growth Factor (FGF-2) for most applications (not supplied).
Overview
High-purity cells derived from human donor tissue from the hindbrain, cortex, spinal cord, or mid-forebrain
Includes serum-free medium (RHB-A medium) optimized for NS cell culture to ensure stable and reproducible results
Applications
Deriving neural lineage cell types
Investigating the biological, functional, and differentiation properties of NS cells isolated from distinct CNS regions
Evaluating signaling pathways involved in NS cell differentiation
We offer several kits for expansion and differentiation of multipotent neural stem (NS) cell lines. These kits contain NS cell lines derived from distinct areas of the human central nervous system, including the neural cortex, hindbrain, mid-forebrain, spinal cord, and temporal lobe. Cells can be used for a variety of neuroscience research applications and compound screening assays. Each kit contains cells (~1.5 x 106 cells) and serum-free media optimized for culturing adherent human NS cells.
NOTE: RHB-A medium requires supplementation with Epidermal Growth Factor (EGF) and Fibroblast Growth Factor (FGF-2) for most applications (not supplied).
Overview
High-purity cells derived from human donor tissue from the hindbrain, cortex, spinal cord, or mid-forebrain
Includes serum-free medium (RHB-A medium) optimized for NS cell culture to ensure stable and reproducible results
Applications
Deriving neural lineage cell types
Investigating the biological, functional, and differentiation properties of NS cells isolated from distinct CNS regions
Evaluating signaling pathways involved in NS cell differentiation