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短期单峰和多峰音乐训练诱导的皮质可塑性。

Cortical plasticity induced by short-term unimodal and multimodal musical training.

作者信息

Lappe Claudia, Herholz Sibylle C, Trainor Laurel J, Pantev Christo

机构信息

Institute for Biomagnetism and Biosignalanalysis, University of Münster, 48149 Münster, Germany.

出版信息

J Neurosci. 2008 Sep 24;28(39):9632-9. doi: 10.1523/JNEUROSCI.2254-08.2008.

Abstract

Learning to play a musical instrument requires complex multimodal skills involving simultaneous perception of several sensory modalities: auditory, visual, somatosensory, as well as the motor system. Therefore, musical training provides a good and adequate neuroscientific model to study multimodal brain plasticity effects in humans. Here, we investigated the impact of short-term unimodal and multimodal musical training on brain plasticity. Two groups of nonmusicians were musically trained over the course of 2 weeks. One group [sensorimotor-auditory (SA)] learned to play a musical sequence on the piano, whereas the other group [auditory (A)] listened to and made judgments about the music that had been played by participants of the sensorimotor-auditory group. Training-induced cortical plasticity was assessed by recording the musically elicited mismatch negativity (MMNm) from magnetoencephalographic measurements before and after training. SA and A groups showed significantly different cortical responses after training. Specifically, the SA group showed significant enlargement of MMNm after training compared with the A group, reflecting greater enhancement of musical representations in auditory cortex after sensorimotor-auditory training compared with after mere auditory training. Thus, we have experimentally demonstrated that not only are sensorimotor and auditory systems connected, but also that sensorimotor-auditory training causes plastic reorganizational changes in the auditory cortex over and above changes introduced by auditory training alone.

摘要

学习演奏乐器需要复杂的多模态技能,涉及同时感知多种感觉模态:听觉、视觉、体感以及运动系统。因此,音乐训练为研究人类多模态脑可塑性效应提供了一个良好且充分的神经科学模型。在此,我们研究了短期单模态和多模态音乐训练对脑可塑性的影响。两组非音乐家在两周的时间里接受了音乐训练。一组[感觉运动 - 听觉(SA)组]学习在钢琴上弹奏一段音乐序列,而另一组[听觉(A)组]聆听感觉运动 - 听觉组参与者弹奏的音乐并做出判断。通过在训练前后记录脑磁图测量中音乐诱发的失配负波(MMNm)来评估训练诱导的皮质可塑性。训练后,SA组和A组表现出明显不同的皮质反应。具体而言,与A组相比,SA组训练后MMNm显著增大,这反映出与单纯听觉训练后相比,感觉运动 - 听觉训练后听觉皮质中音乐表征的增强更为显著。因此,我们通过实验证明,不仅感觉运动系统和听觉系统相互连接,而且感觉运动 - 听觉训练会导致听觉皮质发生可塑性重组变化,这种变化超出了单纯听觉训练所带来的变化。

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