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骨骼肌对抗阻训练的适应。

Adaptation of skeletal muscle to resistance training.

出版信息

J Orthop Sports Phys Ther. 1990;12(6):248-55. doi: 10.2519/jospt.1990.12.6.248.

DOI:10.2519/jospt.1990.12.6.248
PMID:18796867
Abstract

This paper was prepared in partial fulfillment for Doctoral Degree in Physical Therapy at Texas Woman's University in Houston, TX. Resistance training is frequently used in rehabilitation to improve musculoskeletal function. The increased ability of skeletal muscle to generate force following resistance training results from two important changes: 1) the adaptation of the muscle fiber, and 2) the extent to which the motor unit can activate the muscle (neural adaption). The purpose of this article is to provide a review of research investigating the effects of resistance training on muscle fibers and on nervous system input. Muscle fiber adaptations caused by resistance training include increased cross-sectional area of the muscle (hypertrophy, hyperplasia, or both), selective hypertrophy of fast twitch fibers, decreased or maintained mitochondrial number and capillary density of muscle, and possible changes in energy sources. Changes in nervous system input resulting from resistance training include recruitment of an increased number and firing rate of motor units, increased reflex potentiation, and improved synchronization. An understanding of the adaptations occurring in muscle in response to resistance training provides a fundamental basis for which appropriate clinical exercise training programs can be developed for the rehabilitation of patients. J Orthop Sports Phys Ther 1990;12(6):248-255.

摘要

本文是在休斯顿德克萨斯女子大学完成物理治疗博士学位的部分成果。在康复中,抗阻训练常用于改善肌肉骨骼功能。抗阻训练后骨骼肌产生力量的能力增加源于两个重要的变化:1)肌纤维的适应;2)运动单位激活肌肉的程度(神经适应)。本文的目的是综述研究抗阻训练对肌纤维和神经系统输入的影响。抗阻训练引起的肌纤维适应性变化包括肌肉横截面积增加(肥大、增生或两者兼有)、快肌纤维选择性肥大、肌肉线粒体数量和毛细血管密度减少或保持不变,以及能量来源的可能变化。抗阻训练引起的神经系统输入的变化包括运动单位募集数量增加和放电频率增加、反射增强和同步改善。了解肌肉对抗阻训练的适应提供了一个基本的基础,从而可以为患者康复制定适当的临床运动训练计划。

《骨科与运动物理治疗杂志》1990 年;12(6):248-255.

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