Browse by author
Lookup NU author(s): Dr Lucy SmithORCiD
Full text for this publication is not currently held within this repository. Alternative links are provided below where available.
Human skin equivalents (HSEs) are a valuable tool for both academic and industrial laboratories to further the understanding of skin physiology in a range of health and disease situations. There have been many advances in the development of HSEs that successfully recapitulate the structure of human skin in vitro; however a main limitation is variability due to the use of complex protocols and exogenous extracellular matrix (ECM) proteins. Previously, we have developed a robust, reproducible, and unique full thickness HSE, using a consistent scaffold, commercially available cells and defined low-serum media. Alvetex® scaffold technology allows fibroblasts to produce their own endogenous ECM proteins, alleviating the need for exogenous collagen and supporting epidermal differentiation and stratification. This model is highly flexible, with the potential to use other cell populations for more complex HSEs, alter the culture regime to experimental needs, and perform preclinical testing using the same tools as in vivo studies. Our full thickness skin equivalent is generated using a detailed step-by-step protocol, which sequentially forms the multi-layered structure of human skin in vitro and is detailed below.
Author(s): Smith L, Maltman V, De Los Santos Gomez P, Goncalves K, Przyborski S
Editor(s): Thomas Biedermann and Sophie Böttcher-Haberzeth
Series Editor(s): John M. Walker
Publication type: Book Chapter
Publication status: Published
Book Title: Skin Tissue Engineering: Methods and Protocols
Year: 2025
Volume: 2922
Print publication date: 18/05/2025
Online publication date: 11/04/2025
Acceptance date: 11/04/2025
Edition: 2
Series Title: Methods in Molecular Biology
Publisher: Springer Nature
Place Published: New York
URL: https://doi.org/10.1007/978-1-0716-4510-9_12
DOI: 10.1007/978-1-0716-4510-9_12
Library holdings: Search Newcastle University Library for this item
ISBN: 9781071645093