Cat. #157847
CLEFF4 cell line
Cat. #: 157847
Unit size: 1x10^6 cells / vial
Organism: Human
Tissue: Colon
Model: Mutant
£575.00
This fee is applicable only for non-profit organisations. If you are a for-profit organisation or a researcher working on commercially-sponsored academic research, you will need to contact our licensing team for a commercial use license.
Contributor
Inventor: Andrew Crowe
Institute: Curtin University
Tool Details
*FOR RESEARCH USE ONLY (for other uses, please contact the licensing team)
- Name: CLEFF4 cell line
- Research fields: Drug development
- Parental cell: Caco-2
- Organism: Human
- Tissue: Colon
- Model: Mutant
- Description: Pharmaceutical drug development requires drug targets to be characterised against efflux transporters. An example is P-glycoprotein (P-gp) which prevents the uptake and trans-cellular transport of hundreds of drug groups. The standard model is to use Caco-2 cells as these can be induced to express high concentrations of P-gp. Said tight junction model can approximate the role of P-gp at the barrier sites in the body including the gastrointestinal tract and also the blood-brain-barrier. There are however limitations to the Caco-2 cell line, including taking 24 days to develop the characteristics required for P-gp-mediated efflux modelling. Further, other efflux proteins including BCRP and MRP2 are often present in Caco-2 cells, which add extra variables when characterising specific P-gp mediated effects. The CLEFF4 cell line is ready to use in just 5 days and has a 3-fold higher expression of P-gp cells at 5-7 days compared to Caco-2 cells at day 21, expressing no more MRP2 and less BCRP than the parent Caco-2 cells. This is a faster, more specific model for P-gp assays offering cost and time savings and which has reduced medium requirement (one can use standard not accelerated media).
Target Details
- Target: CLEFF4
Handling
- Format: Frozen
- Unit size: 1x10^6 cells / vial
- Shipping conditions: Dry ice
References
- Andrew Crowe. 2024. Eur J Pharm Biopharm. 199:114291. PMID: 38641230.
- Andrew Crowe. 2021. SLAS Discov. 26(1):151-160. PMID: 32706283.