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跑步时作用于小腿的矢状面弯曲力矩。

Sagittal plane bending moments acting on the lower leg during running.

机构信息

Centre for Health, Exercise & Sports Medicine, University of Melbourne, Victoria, Australia.

出版信息

Gait Posture. 2010 Feb;31(2):218-22. doi: 10.1016/j.gaitpost.2009.10.009. Epub 2009 Nov 17.

DOI:10.1016/j.gaitpost.2009.10.009
PMID:19926481
Abstract

Sagittal bending moments acting on the lower leg during running may play a role in tibial stress fracture development. The purpose of this study was to evaluate these moments at nine equidistant points along the length of the lower leg (10% point-90% point) during running. Kinematic and ground reaction force data were collected for 20 male runners, who each performed 10 running trials. Inverse dynamics and musculoskeletal modelling techniques were used to estimate sagittal bending moments due to reaction forces and muscle contraction. The muscle moment was typically positive during stance, except at the most proximal location (10% point) on the lower leg. The reaction moment was predominantly negative throughout stance and greater in magnitude than the muscle moment. Hence, the net sagittal bending moment acting on the lower leg was principally negative (indicating tensile loads on the posterior tibia). Peak moments typically occurred around mid-stance, and were greater in magnitude at the distal, compared with proximal, lower leg. For example, the peak reaction moment at the most distal point was -9.61+ or - 2.07%Bw.Ht., and -2.73 + or - 1.18%Bw.Ht. at the most proximal point. These data suggest that tensile loads on the posterior tibia are likely to be higher toward the distal end of the bone. This finding may explain the higher incidence of stress fracture in the distal aspect of the tibia, observed by some authors. Stress fracture susceptibility will also be influenced by bone strength and this should also be accounted for in future studies.

摘要

在跑步过程中,作用于小腿的矢状面弯曲力矩可能在胫骨应力性骨折的发生发展中起作用。本研究的目的是在跑步过程中评估小腿长度的 9 个等距点(10%点-90%点)处的这些力矩。共采集了 20 名男性跑步者的运动学和地面反力数据,他们每人进行了 10 次跑步试验。使用反向动力学和肌肉骨骼建模技术来估算由于反作用力和肌肉收缩引起的矢状面弯曲力矩。肌肉力矩在站立时通常为正,除了小腿最靠近近端的位置(10%点)。站立时,反作用力矩主要为负,且幅度大于肌肉力矩。因此,作用于小腿的净矢状面弯曲力矩主要为负(表明胫骨后有拉伸力)。峰值力矩通常出现在站立中期,且在小腿远端比近端更大。例如,最远端的峰值反作用力矩为-9.61+或-2.07%Bw.Ht.,而最靠近近端的点为-2.73+或-1.18%Bw.Ht.。这些数据表明,胫骨后拉伸力可能在骨骼的远端更高。这一发现可能解释了一些作者观察到的胫骨远端应力性骨折发生率较高的原因。应力性骨折的易感性还将受到骨强度的影响,这也应该在未来的研究中加以考虑。

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