A Cryopreservation Strategy for Myoblast Storage in Paper‐Based Scaffolds for Inter‐Laboratory Studies of Skeletal Muscle Health

Author:

Rjaibi Saifedine T.123ORCID,Jacques Erik23,Ni Jiaru4,Xu Bin23ORCID,Kouthouridis Sonya5ORCID,Sitolle Julie6,Lad Heta23,Gulati Nitya12ORCID,Li Nancy T.1ORCID,Ahn Henry78,Ginsberg Howard J.789,Zhang Boyang510ORCID,Grand Fabien Le6ORCID,Gilbert Penney M.2311ORCID,McGuigan Alison P.13ORCID

Affiliation:

1. Department of Chemical Engineering and Applied Chemistry University of Toronto Toronto ON M5S3E4 Canada

2. Donnelly Centre for Cellular and Biomolecular Research University of Toronto Toronto ON M5S3E1 Canada

3. Institute of Biomedical Engineering University of Toronto Toronto ON M5S3G9 Canada

4. Division of Engineering Science University of Toronto Toronto ON M5S2E4 Canada

5. Department of Chemical Engineering McMaster University Hamilton ON L8S4L7 Canada

6. Institut NeuroMyoGène Pathophysiology and Genetics of Neuron and Muscle (PGNM) Unit Université Claude Bernard Lyon 1 CNRS UMR 5261, INSERM U1315 Lyon 69008 France

7. Department of Surgery University of Toronto Toronto ON M5T 1P5 Canada

8. Li Ka Shing Knowledge Institute Saint Michael's Hospital Toronto ON M5B 1W8 Canada

9. Department of Laboratory Medicine and Pathobiology University of Toronto Toronto ON M5S 1A8 Canada

10. School of Biomedical Engineering McMaster University Hamilton ON L8S4L7 Canada

11. Department of Cell and Systems Biology University of Toronto Toronto ON M5S3G5 Canada

Abstract

Abstract3D tissue‐engineered models are poised to facilitate understanding of skeletal muscle pathophysiology and identify novel therapeutic agents to improve muscle health. Adopting these culture models within the broader biology community is a challenge as many models involve complex methodologies and significant investments of time and resources to optimize manufacturing protocols. To alleviate this barrier, a protocol with commercially available reagents is developed to cryopreserve myoblasts in a 96‐well compatible format that allows tissues to be transferred to users without expertise in 2D or 3D skeletal muscle cell culture. This report validates that myoblasts encapsulated in a hydrogel and cryopreserved in paper‐based scaffolds maintain cell viability, differentiation, and function via acetylcholine‐induced transient calcium responses. Furthermore, successful shipping of myoblasts cryopreserved in paper‐based scaffolds to intra‐provincial and international collaborators is demonstrated who successfully thaw, culture, and use the 3D muscle tissues. Finally, the application of this method is confirmed for studying muscle endogenous repair by seeding freshly isolated skeletal muscle stem cells to cryopreserved then differentiated and injured tissues, demonstrating expected responses to a known stimulator of muscle stem cell self‐renewal, p38α/β MAPKi. Altogether, the 3D myoblast cryopreservation protocol offers broadened access of a complex skeletal muscle tissue model to the research community.

Funder

Canada Excellence Research Chairs, Government of Canada

Natural Sciences and Engineering Research Council of Canada

Canada First Research Excellence Fund

Publisher

Wiley

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