Musical training increases functional connectivity, but does not enhance mu suppression

Wu C, Hamm JP, Lim VK, Kirk IJ (2017)
Neuropsychologia 104: 223-233.

Zeitschriftenaufsatz | Veröffentlicht | Englisch
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Wu, CarolynUniBi ; Hamm, Jeff P.; Lim, Vanessa K.; Kirk, Ian J.
Abstract / Bemerkung
Musical training provides an ideal platform for investigating action representation for sound. Learning to play an instrument requires integration of sensory and motor perception-action processes. Functional neuroimaging studies have indicated that listening to trained music can result in the activity in premotor areas, even after a short period of training. These studies suggest that action representation systems are heavily dependent on specific sensorimotor experience. However, others suggest that because humans naturally move to music, sensorimotor training is not necessary and there is a more general action representation for music. We previously demonstrated that EEG mu suppression, commonly implemented to demonstrate mirror-neuron-like action representation while observing movements, can also index action representations for sounds in pianists. The current study extends these findings to a group of non-musicians who learned to play randomised sequences on a piano, in order to acquire specific sound-action mappings for the five fingers of their right hand. We investigated training-related changes in neural dynamics as indexed by mu suppression and task-related coherence measures. To test the specificity of training effects, we included sounds similar to those encountered in the training and additionally rhythm sequences. We found no effect of training on mu suppression between pre- and post-training EEG recordings. However, task-related coherence indexing functional connectivity between electrodes over audiomotor areas increased after training. These results suggest that long-term training in musicians and short-term training in novices may be associated with different stages of audiomotor integration that can be reflected in different EEG measures. Furthermore, the changes in functional connectivity were specifically found for piano tones, and were not apparent when participants listened to rhythms, indicating some degree of specificity related to training.
Musical training; Audiomotor; EEG; Mu suppression; EEG coherence
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Wu C, Hamm JP, Lim VK, Kirk IJ. Musical training increases functional connectivity, but does not enhance mu suppression. Neuropsychologia. 2017;104:223-233.
Wu, C., Hamm, J. P., Lim, V. K., & Kirk, I. J. (2017). Musical training increases functional connectivity, but does not enhance mu suppression. Neuropsychologia, 104, 223-233. doi:10.1016/j.neuropsychologia.2017.08.029
Wu, Carolyn, Hamm, Jeff P., Lim, Vanessa K., and Kirk, Ian J. 2017. “Musical training increases functional connectivity, but does not enhance mu suppression”. Neuropsychologia 104: 223-233.
Wu, C., Hamm, J. P., Lim, V. K., and Kirk, I. J. (2017). Musical training increases functional connectivity, but does not enhance mu suppression. Neuropsychologia 104, 223-233.
Wu, C., et al., 2017. Musical training increases functional connectivity, but does not enhance mu suppression. Neuropsychologia, 104, p 223-233.
C. Wu, et al., “Musical training increases functional connectivity, but does not enhance mu suppression”, Neuropsychologia, vol. 104, 2017, pp. 223-233.
Wu, C., Hamm, J.P., Lim, V.K., Kirk, I.J.: Musical training increases functional connectivity, but does not enhance mu suppression. Neuropsychologia. 104, 223-233 (2017).
Wu, Carolyn, Hamm, Jeff P., Lim, Vanessa K., and Kirk, Ian J. “Musical training increases functional connectivity, but does not enhance mu suppression”. Neuropsychologia 104 (2017): 223-233.

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