Ex Vivo Generation and Characterization of Human Hyaline and Elastic Cartilaginous Microtissues for Tissue Engineering Applications.

No Thumbnail Available

Date

2021-03-12

Authors

Sánchez-Porras, David
Durand-Herrera, Daniel
Paes, Ana B
Chato-Astrain, Jesús
Verplancke, Rik
Vanfleteren, Jan
Sánchez-López, José Darío
García-García, Óscar Darío
Campos, Fernando
Carriel, Víctor

Advisors

Journal Title

Journal ISSN

Volume Title

Publisher

Metrics
Google Scholar
Export

Research Projects

Organizational Units

Journal Issue

Abstract

Considering the high prevalence of cartilage-associated pathologies, low self-repair capacity and limitations of current repair techniques, tissue engineering (TE) strategies have emerged as a promising alternative in this field. Three-dimensional culture techniques have gained attention in recent years, showing their ability to provide the most biomimetic environment for the cells under culture conditions, enabling the cells to fabricate natural, 3D functional microtissues (MTs). In this sense, the aim of this study was to generate, characterize and compare scaffold-free human hyaline and elastic cartilage-derived MTs (HC-MTs and EC-MTs, respectively) under expansion (EM) and chondrogenic media (CM). MTs were generated by using agarose microchips and evaluated ex vivo for 28 days. The MTs generated were subjected to morphometric assessment and cell viability, metabolic activity and histological analyses. Results suggest that the use of CM improves the biomimicry of the MTs obtained in terms of morphology, viability and extracellular matrix (ECM) synthesis with respect to the use of EM. Moreover, the overall results indicate a faster and more sensitive response of the EC-derived cells to the use of CM as compared to HC chondrocytes. Finally, future preclinical in vivo studies are still needed to determine the potential clinical usefulness of these novel advanced therapy products.

Description

MeSH Terms

DeCS Terms

CIE Terms

Keywords

extracellular matrix, human elastic chondrocytes, human hyaline chondrocytes, microtissues, organoids, tissue engineering

Citation