| Literature DB >> 28960468 |
Tao Wang1,2, Peilin Chen2, Monica Zheng3, Allan Wang2,4, David Lloyd5,6, Toby Leys4, Qiujian Zheng1, Ming H Zheng2.
Abstract
Tendons are the connective tissue responsible for transferring force from muscles to bones. A key factor in tendon development, maturation, repair, and degradation is its biomechanical environment. Understanding tendon mechanobiology is essential for the development of injury prevention strategies, rehabilitation protocols and potentially novel treatments in tendon injury and degeneration. Despite the simple overall loading on tendon tissue, cells within the tissue in vivo experience a much more complex mechanical environment including tension, compression and shear forces. This creates a substantial challenge in the establishment of in vitro loading models of the tendon. This article reviews multiple loading models used for the study of tendon mechanobiology and summarizes the main findings. Although impressive progress has been achieved in the functionality and mimicry of in vitro loading models, an ideal platform is yet to be developed. Multidisciplinary approaches and collaborations will be the key to unveiling the tendon mechanobiology.Entities:
Keywords: bioreactor; differentiation; mechanobiology; tendinopathy; tendon
Mesh:
Year: 2017 PMID: 28960468 DOI: 10.1002/jor.23752
Source DB: PubMed Journal: J Orthop Res ISSN: 0736-0266 Impact factor: 3.494