Guillot Aymeric, Debarnot Ursula
Inter-University Laboratory of Human Movement Biology-EA 7424, University of Lyon, University Claude Bernard Lyon 1, Villeurbanne, France.
Institut Universitaire de France, Paris, France.
Front Physiol. 2019 Apr 11;10:396. doi: 10.3389/fphys.2019.00396. eCollection 2019.
Motor imagery (MI) is arguably one of the most remarkable capacities of the human mind. There is now strong experimental evidence that MI contributes to substantial improvements in motor learning and performance. The therapeutic benefits of MI in promoting motor recovery among patients with motor impairments have also been reported. Despite promising theoretical and experimental findings, the utility of MI in adapting to unusual conditions, such as weightlessness during space flight, has received far less attention. In this review, we consider how, why, where, and when MI might be used by astronauts, and further evaluate the optimum MI content. Practically, we suggest that MI might be performed before, during, and after exposure to microgravity, respectively, to prepare for the rapid changes in gravitational forces after launch and to reduce the adverse effects of weightlessness exposition. Moreover, MI has potential role in facilitating re-adaptation when returning to Earth after long exposure to microgravity. Suggestions for further research include a focus on the multi-sensory aspects of MI, the requirement to use temporal characteristics as a measurement tool, and to account for the knowledge-base or metacognitive processes underlying optimal MI implementation.
运动想象(MI)可以说是人类思维最显著的能力之一。现在有强有力的实验证据表明,运动想象有助于显著改善运动学习和表现。运动想象在促进运动功能受损患者运动恢复方面的治疗益处也已有报道。尽管有很有前景的理论和实验结果,但运动想象在适应诸如太空飞行中的失重等异常情况方面的效用却很少受到关注。在这篇综述中,我们思考宇航员可能在何时、为何、何处以及如何运用运动想象,并进一步评估最佳的运动想象内容。实际上,我们建议运动想象可以分别在暴露于微重力之前、期间和之后进行,以应对发射后重力的快速变化,并减少失重暴露的不利影响。此外,在长时间暴露于微重力后返回地球时,运动想象在促进重新适应方面具有潜在作用。进一步研究的建议包括关注运动想象的多感官方面,需要将时间特征用作测量工具,并考虑最佳运动想象实施背后的知识库或元认知过程。