肌腱发育和损伤模型。

BMC biomedical engineering Pub Date : 2019-01-01 Epub Date: 2019-11-29 DOI:10.1186/s42490-019-0029-5
Sophia K Theodossiou, Nathan R Schiele
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引用次数: 17

摘要

肌腱连接肌肉和骨骼,传递正常运动所必需的力量。肌腱损伤会使人虚弱,其内在的愈合潜力有限。这些挑战促使了模型系统的发展,以研究调节肌腱形成和肌腱损伤的因素。最近对胚胎和出生后肌腱形成的理解的进展激发了旨在模仿肌腱发育关键方面的方法。模型系统也被开发来探索调节肌腱损伤和愈合的因素。我们强调当前的模型系统,探索在肌腱形成和肌腱干细胞分化中受发育启发的细胞、机械和生化因素。接下来,我们将讨论肌腱损伤的体内、体外、离体和计算模型,以研究机械负荷和生化因素如何促进肌腱病理和愈合。这些肌腱发育和损伤模型有望确定指导肌腱形成和肌腱病理的因素,并最终改善再生组织工程策略和临床结果。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

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Models of tendon development and injury.

Tendons link muscle to bone and transfer forces necessary for normal movement. Tendon injuries can be debilitating and their intrinsic healing potential is limited. These challenges have motivated the development of model systems to study the factors that regulate tendon formation and tendon injury. Recent advances in understanding of embryonic and postnatal tendon formation have inspired approaches that aimed to mimic key aspects of tendon development. Model systems have also been developed to explore factors that regulate tendon injury and healing. We highlight current model systems that explore developmentally inspired cellular, mechanical, and biochemical factors in tendon formation and tenogenic stem cell differentiation. Next, we discuss in vivo, in vitro, ex vivo, and computational models of tendon injury that examine how mechanical loading and biochemical factors contribute to tendon pathologies and healing. These tendon development and injury models show promise for identifying the factors guiding tendon formation and tendon pathologies, and will ultimately improve regenerative tissue engineering strategies and clinical outcomes.

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