Micropattern-based platform as a physiologically relevant model to study epithelial morphogenesis and nephrotoxicity

Bosch-Fortea M, Rodriguez-Fraticelli AE, Herranz G, Hachimi M, Barea MD, Young J, Ladoux B, Martin-Belmonte F (2019)


Publication Type: Journal article

Publication year: 2019

Journal

Book Volume: 218

Article Number: 119339

DOI: 10.1016/j.biomaterials.2019.119339

Abstract

Tubulogenesis in epithelial organs often initiates with the acquisition of apicobasal polarity, giving rise to the formation of small lumens that expand and fuse to generate a single opened cavity. In this study, we present a micropattern-based device engineered to generate epithelial tubes through a process that recapitulates in vivo tubule morphogenesis. Interestingly, tubulogenesis in this device is dependent on microenvironmental cues such as cell confinement, extracellular matrix composition, and substrate stiffness, and our set-up specifically allows the control of these extracellular conditions. Additionally, proximal tubule cell lines growing on micropatterns express higher levels of drug transporters and are more sensitive to nephrotoxicity. These tubes display specific morphological defects that can be linked to nephrotoxicity, which would be helpful to predict potential toxicity when developing new compounds. This device, with the ability to recapitulate tube formation in vitro, has emerged as a powerful tool to study the molecular mechanisms involved in organogenesis and, by being more physiologically relevant than existing cellular models, becomes an innovative platform to conduct drug discovery assays.

Involved external institutions

How to cite

APA:

Bosch-Fortea, M., Rodriguez-Fraticelli, A.E., Herranz, G., Hachimi, M., Barea, M.D., Young, J.,... Martin-Belmonte, F. (2019). Micropattern-based platform as a physiologically relevant model to study epithelial morphogenesis and nephrotoxicity. Biomaterials, 218. https://doi.org/10.1016/j.biomaterials.2019.119339

MLA:

Bosch-Fortea, Minerva, et al. "Micropattern-based platform as a physiologically relevant model to study epithelial morphogenesis and nephrotoxicity." Biomaterials 218 (2019).

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