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感觉运动训练对力量发展速率和神经激活的影响。

Impact of sensorimotor training on the rate of force development and neural activation.

作者信息

Gruber Markus, Gollhofer Albert

机构信息

Department of Sport Science, University of Freiburg, Schwarzwaldstrasse 175, 79117 Freiburg, Germany.

出版信息

Eur J Appl Physiol. 2004 Jun;92(1-2):98-105. doi: 10.1007/s00421-004-1080-y. Epub 2004 Mar 13.

DOI:10.1007/s00421-004-1080-y
PMID:15024669
Abstract

The ability to generate high muscular strength within short time periods is of functional importance not only as a basic quality in many sports disciplines but also for active stabilization of joints. The rate of force development (RFD) is generally used to describe this ability. The purpose of the present study was to examine the functional adaptations of a specific sensorimotor training on the explosive strength qualities of the leg extensor muscles during maximum isometric actions. Force and surface EMG were recorded in 17 subjects before and after a 4-week sensorimotor training period. Maximum static leg press strength did not change [608.2 (47.0) N to 627.8 (48.4) N before/after training], whereas maximum RFD (RFD(max)) increased significantly from 4.95 (0.48) N/ms to 6.58 (0.76) N/ms (P<0.05). The gain in RFD(max) was accompanied by an increased EMG of the M. vastus medialis. Enhancement of neuromuscular activation was only prominent in the early phases of muscular action. Neither force nor EMG parameters revealed significant improvements for time phases beyond 100 ms following the onset of isometric action. Enhanced extrafacilitatory drive from the afferent system is discussed as a potential mechanism for the improved neural activation. From a more functional point of view, this type of adaptation may be helpful in various sport performances. Moreover, with regard to injury related situations, enhanced neuromuscular activation is of distinct relevance in order to stiffen joint complexes actively within short time periods.

摘要

在短时间内产生高肌肉力量的能力不仅在许多体育项目中作为一项基本素质具有功能重要性,而且对于关节的主动稳定也很重要。力量发展速率(RFD)通常用于描述这种能力。本研究的目的是检验一种特定的感觉运动训练对最大等长动作期间股四头肌爆发力素质的功能适应性。在17名受试者进行为期4周的感觉运动训练前后记录力量和表面肌电图。最大静态腿举力量没有变化[训练前/后分别为608.2(47.0)N至627.8(48.4)N],而最大RFD(RFD(max))从4.95(0.48)N/ms显著增加到6.58(0.76)N/ms(P<0.05)。RFD(max)的增加伴随着股内侧肌肌电图的增加。神经肌肉激活的增强仅在肌肉动作的早期阶段显著。在等长动作开始后100 ms以上的时间阶段,力量和肌电图参数均未显示出显著改善。来自传入系统的增强的额外易化驱动被认为是神经激活改善的潜在机制。从更功能的角度来看,这种类型的适应可能有助于各种运动表现。此外,在与损伤相关的情况下,增强的神经肌肉激活对于在短时间内主动加强关节复合体具有明显的相关性。

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