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长臂猿后肢的肌肉力臂:对长臂猿运动方式的启示。

Muscle moment arms of the gibbon hind limb: implications for hylobatid locomotion.

机构信息

Department of Human Anatomy and Cell Biology, School of Biomedical Sciences, University of Liverpool, Liverpool, UK.

出版信息

J Anat. 2010 Apr;216(4):446-62. doi: 10.1111/j.1469-7580.2009.01209.x.

Abstract

Muscles facilitate skeletal movement via the production of a torque or moment about a joint. The magnitude of the moment produced depends on both the force of muscular contraction and the size of the moment arm used to rotate the joint. Hence, larger muscle moment arms generate larger joint torques and forces at the point of application. The moment arms of a number of gibbon hind limb muscles were measured on four cadaveric specimens (one Hylobates lar, one H. moloch and two H. syndactylus). The tendon travel technique was used, utilizing an electro-goniometer and a linear voltage displacement transducer. The data were analysed using a technique based on a differentiated cubic spline and normalized to remove the effect of body size. The data demonstrated a functional differentiation between voluminous muscles with short fascicles having small muscle moment arms and muscles with longer fascicles and comparatively smaller physiological cross-sectional area having longer muscle moment arms. The functional implications of these particular configurations were simulated using a simple geometric fascicle strain model that predicts that the rectus femoris and gastrocnemius muscles are more likely to act primarily at their distal joints (knee and ankle, respectively) because they have short fascicles. The data also show that the main hip and knee extensors maintain a very small moment arm throughout the range of joint angles seen in the locomotion of gibbons, which (coupled to voluminous, short-fascicled muscles) might help facilitate rapid joint rotation during powerful movements.

摘要

肌肉通过在关节处产生扭矩或力矩来促进骨骼运动。产生的力矩大小取决于肌肉收缩的力和用于旋转关节的力臂的大小。因此,较大的肌肉力臂会在应用点产生较大的关节扭矩和力。在四个尸体标本(一个长臂猿 lar,一个 H. moloch 和两个 H. syndactylus)上测量了一些长臂猿后肢肌肉的肌腱行程。使用电测角仪和线性电压位移传感器使用肌腱行程技术。使用基于差分三次样条的技术对数据进行分析,并进行归一化处理以消除体型的影响。数据表明,具有短肌束的大容量肌肉与具有较长肌束和相对较小生理横截面积的肌肉之间存在功能分化,后者具有较长的肌肉力臂。使用简单的几何肌束应变模型模拟了这些特定配置的功能意义,该模型预测股直肌和腓肠肌更有可能主要在其远端关节(分别为膝关节和踝关节)起作用,因为它们具有短肌束。数据还表明,主要的髋关节和膝关节伸肌在长臂猿运动中看到的整个关节角度范围内保持非常小的力臂,这(与大容量、短肌束的肌肉结合在一起)可能有助于在有力的运动中快速旋转关节。

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