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Replica moulded poly(dimethylsiloxane) microwell arrays induce localized endothelial cell immobilization for coculture with pancreatic islets

Authors :
Anouck L.S. Burzava
Aurelien Forget
Claudine S. Bonder
Thomas W.H. Kay
Paula Facal Marina
Darling Rojas-Canales
Frances J. Harding
Nicolas H. Voelcker
P. Toby Coates
Helen E. Thomas
Thomas Loudovaris
Vincent Ahmadi
Camille Rouzaud
Anton Blencowe
Michaelia P. Cockshell
Daniella Penko
Michaela Waibel
Forget, Aurelien
Harding, Frances J
Cockshell, Michaelia P
Penko, Daniella
Rouzaud, Camille
Ahmadi, Vincent
Marina, Paula F
Rojas-Canales, Darling
Bonder, Claudine S
Coates, P Toby H
Waibel, Michaela
Thomas, Helen E
Kay, Thomas W
Loudovaris, Thomas
Blencowe, Anton
Voelcker, Nicolas H
Source :
Biointerphases. 14:011002
Publication Year :
2019
Publisher :
American Vacuum Society, 2019.

Abstract

PolyJet three-dimensional (3D) printing allows for the rapid manufacturing of 3D moulds for the fabrication of cross-linked poly(dimethylsiloxane) microwell arrays (PMAs). As this 3D printing technique has a resolution on the micrometer scale, the moulds exhibit a distinct surface roughness. In this study, the authors demonstrate by optical profilometry that the topography of the 3D printed moulds can be transferred to the PMAs and that this roughness induced cell adhesive properties to the material. In particular, the topography facilitated immobilization of endothelial cells on the internal walls of the microwells. The authors also demonstrate that upon immobilization of endothelial cells to the microwells, a second population of cells, namely, pancreatic islets could be introduced, thus producing a 3D coculture platform Refereed/Peer-reviewed

Details

ISSN :
15594106 and 19348630
Volume :
14
Database :
OpenAIRE
Journal :
Biointerphases
Accession number :
edsair.doi.dedup.....e35a7d56c9b8a8799c2793082dc1f6c7
Full Text :
https://doi.org/10.1116/1.5087737