For research use only
| Cat No. | ABI-TC189R |
| Product Type | Immortalized Cell Line |
| Cell Type | Other Specialized Cells |
| Species | Human |
| Growth Conditions | 37 °C, 5% CO2 |
| Source Organ | Brain |
| Disease | Normal |
| Storage | Liquid Nitrogen |
Immortalized Human Cortical Vascular Cells carrying the SV40T gene via lentiviral transduction, provided at 0.5 million viable cells per vial.
Immortalized Human Cortical Vascular Cells (iHCoVCs) are derived from human cerebral cortex vasculature and genetically modified to enable long-term proliferation while retaining key endothelial and perivascular cell characteristics. These cells exhibit typical endothelial cobblestone morphology or pericyte-like spindle morphology depending on culture conditions. The cells retain functional properties including tube formation, barrier integrity, and responses to vasoactive stimuli. Compared with primary cortical vascular cells, immortalized iHCoVCs provide enhanced stability, reproducibility, and extended lifespan, making them a reliable in vitro model for neurovascular research, blood-brain barrier studies, and cerebrovascular disease modeling.
| Product Code | Immortalized Human Cortical Vascular Cells,IHCVC,Immortalized HCVCs,iHCoVCs |
| Species | Human |
| Cat.No | ABI-TC189R |
| Product Category | Immortalized Cell Lines |
| Size/Quantity | 1 vial |
| Cell Type | Other Specialized Cells |
| Growth Mode | Adherent |
| Shipping Info | Dry Ice |
| Growth Conditions | 37 °C, 5% CO2 |
| Source Organ | Brain |
| Disease | Normal |
| Biosafety Level | 1 |
| Storage | Liquid Nitrogen |
| Product Type | Immortalized Cell Line |
| Immortalization Method | SV40T |
| Quality Control | All cells test negative for mycoplasma, bacteria, yeast, and fungi. |
Immortalized human cortical vascular cells are widely used in neurovascular and blood-brain barrier (BBB) research. They support studies of endothelial-pericyte interactions, barrier integrity, angiogenesis, and responses to inflammatory or vasoactive stimuli. These cells serve as a reproducible in vitro model for cerebrovascular disease modeling, drug screening, and mechanistic studies of neurovascular signaling.