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生物运动与物理定律

Biological Movement and Laws of Physics.

作者信息

Latash Mark L

机构信息

1 The Pennsylvania State University.

出版信息

Motor Control. 2017 Jul;21(3):327-344. doi: 10.1123/mc.2016-0016. Epub 2016 Aug 19.

DOI:10.1123/mc.2016-0016
PMID:27633077
Abstract

Living systems may be defined as systems able to organize new, biology-specific, laws of physics and modify their parameters for specific tasks. Examples include the force-length muscle dependence mediated by the stretch reflex, and the control of movements with modification of the spatial referent coordinates for salient performance variables. Low-dimensional sets of referent coordinates at a task level are transformed to higher-dimensional sets at lower hierarchical levels in a way that ensures stability of performance. Stability of actions can be controlled independently of the actions (e.g., anticipatory synergy adjustments). Unintentional actions reflect relaxation processes leading to drifts of corresponding referent coordinates in the absence of changes in external load. Implications of this general framework for movement disorders, motor development, motor skill acquisition, and even philosophy are discussed.

摘要

生命系统可以被定义为能够组织新的、特定于生物学的物理定律并针对特定任务修改其参数的系统。例子包括由牵张反射介导的力-长度肌肉依赖性,以及通过修改显著性能变量的空间参考坐标来控制运动。任务层面的低维参考坐标集以确保性能稳定性的方式在较低层次水平上转换为高维集。动作的稳定性可以独立于动作进行控制(例如,预期协同调整)。非故意动作反映了在外部负荷没有变化的情况下导致相应参考坐标漂移的松弛过程。本文讨论了这个通用框架对运动障碍、运动发育、运动技能习得乃至哲学的影响。

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