PEER-REVIEWED PUBLICATION

2021

Monitoring mechanical stimulation for optimal tendon tissue engineering: a mechanical and biological multiscale study

A tensile test divider icon

Garcia AG, Perot J, et al.

Journal of Biomedical Materials Research Part A

Université de Technologie de Compiègne, CNRS, Sorbonne Université, Centre Hospitalier Sud (Salouël)

RESEARCH SUMMARY
This multiscale tendon tissue engineering study investigated how cyclic mechanical stimulation shapes both the biological response of bone marrow stromal cells (BMSCs) and the evolving mechanical behavior of cell–scaffold constructs. Rat BMSCs were cultured on random electrospun PCL scaffolds under static versus dynamic stretching conditions (5% strain, 1 Hz, 1 h twice daily over up to 12 days). Dynamically stimulated constructs showed clear cell alignment along the loading axis, increased collagen synthesis (hydroxyproline), more organized type I collagen deposition, and increased expression/alignment of tenomodulin, supporting tenogenic differentiation without chemical induction. Mechanical stimulation also shifted construct mechanical behavior toward a more tendon-like response, with dynamically stimulated cell-constructs demonstrating enhanced elastic contribution (storage modulus) relative to static culture conditions.
CellScale hexagons, without text

CELLSCALE INSTRUMENT USED

MechanoCulture T6

A CellScale MechanoCulture T6 mechanical stimulation bioreactor was used to apply controlled uniaxial cyclic stretching to multiple cell-seeded electrospun scaffolds in parallel (6 samples) under cell-culture conditions. The CellScale system delivered the study’s key “dynamic culture” input—5% cyclic tensile strain at 1 Hz in repeated daily stimulation blocks—enabling a direct biological comparison between mechanically conditioned versus static constructs. This CellScale-driven loading regimen was essential to demonstrate mechanically induced cell alignment, collagen organization, and tenomodulin-associated tenogenic phenotype development, establishing mechanical stimulation as a chemical-free cue for tendon-like tissue maturation.
AUTHORS

Alejandro Garcia Garcia; Jean-Baptiste Perot; Megane Beldjilali-Labro; Quentin Dermigny; Marie Naudot; Sophie Le Ricousse; Cécile Legallais; Fahmi Bedoui.

PUBLICATION DETAILS
JOURNAL

Journal of Biomedical Materials Research Part A

YEAR

2021

INSTITUTIONS

Université de Technologie de Compiègne, CNRS, Sorbonne Université, Centre Hospitalier Sud (Salouël)

COUNTRIES

France

INSTRUMENT USED

MechanoCulture T6

TESTING METHODS

Hydrated and Temperature Controlled TestingTensile Testing

RESEARCH APPLICATIONS

MechanotransductionMusculoskeletal Tissue Engineering & MechanicsScaffold Mechanical TestingStem Cell MechanobiologyTendon Tissue Engineering & Ligament Mechanics

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Product of Interest:
CellScale hexagon shapes