Optimization of Normal Human Bronchial Epithelial Cell 3D Cultures for In Vitro Lung Model Studies
Robust, physiologically relevant in vitro lung model systems are required to properly investigate respiratory physiology and pathology. However, obtaining truly differentiated air-liquid-interface (ALI) cultures with airway epithelial cells can be challenging, due to the limited expansion and differentiation potential associated with primary cells. In this virtual paper presentation, Dr. Rachael Rayner evaluates the effects of different expansion media on the ability to expand primary normal human bronchial epithelial cells while maintaining their 3D culture characteristics. Her research highlights the need for more critical assessments of expansion and differentiation culture conditions to obtain optimal morphology and functional readouts.
Publish Date:
August 23, 2019
Request Pricing
Thank you for your interest in this product. Please provide us with your contact information and your local representative will contact you with a customized quote. Where appropriate, they can also assist you with a(n):
Estimated delivery time for your area
Product sample or exclusive offer
In-lab demonstration
By submitting this form, you are providing your consent to STEMCELL Technologies Canada Inc. and its subsidiaries and affiliates (“STEMCELL”) to collect and use your information, and send you newsletters and emails in accordance with our privacy policy. Please contact us with any questions that you may have. You can unsubscribe or change your email preferences at any time.
Related Multimedia
-
Making Lung Cells from Pluripotent Stem Cells: Disease Modeling and Future Therapies
Publish Date: August 12, 2016 -
Studying Cystic Fibrosis Using Primary Human Nasal Epithelial Cells
Publish Date: March 21, 2019
Explore Our Products
-
PneumaCult™ Airway Organoid Kit
Serum- and BPE-free medium for efficient establishment and differentiation of airway organoids -
Serum- and BPE-free medium for human small airway epithelial cells cultured at the air-liquid interface
