Finni T
Neuromuscular Research Center, Department of Biology of Physical Activity, University of Jyväskylä, Jyväskylä, Finland.
Scand J Med Sci Sports. 2006 Jun;16(3):147-58. doi: 10.1111/j.1600-0838.2005.00494.x.
This paper reviews the architectural details and the in vivo behavior of the human muscle-tendon unit with the focus on the triceps surae and quadriceps femoris muscles. Recent advances in experimental techniques allow in vivo measurements of muscle-tendon architecture and function. In particular, the use of ultrasonography for measurement of tendon and muscle has expanded our knowledge in the last decade. Furthermore, the nuclear magnetic resonance imaging is opening up new insights not only for three-dimensional anatomical information but also for examining musculo-skeletal motion in vivo. While these two completely non-invasive methods provide kinematic data, in vivo force measurements still require somewhat invasive procedures and are scarce. Thus, muscle forces are frequently calculated using both simple and complex models. These models can give us suggestions for further experimental work. There is a need to examine the experimental data ranging from single-fiber experiments to the muscle function in human movement in order to understand the muscle-tendon function in vivo fully. Furthermore, appreciation of the structure-function relationships may help us to understand the entity of muscle-tendon function both from the perspective of mechanical behavior and neural control.
本文回顾了人类肌肉-肌腱单元的结构细节和体内行为,重点关注小腿三头肌和股四头肌。实验技术的最新进展使得能够在体内测量肌肉-肌腱的结构和功能。特别是,超声检查在肌腱和肌肉测量中的应用在过去十年中扩展了我们的知识。此外,核磁共振成像不仅为三维解剖信息,也为体内肌肉骨骼运动的研究开辟了新的视角。虽然这两种完全非侵入性的方法提供了运动学数据,但体内力的测量仍然需要一些侵入性程序,并且数据稀少。因此,肌肉力量经常使用简单和复杂的模型来计算。这些模型可以为进一步的实验工作提供建议。有必要研究从单纤维实验到人体运动中肌肉功能的实验数据,以便全面了解体内肌肉-肌腱的功能。此外,理解结构-功能关系可能有助于我们从力学行为和神经控制的角度理解肌肉-肌腱功能的本质。