Jul 2026· Advances in Research· Vol 27, pp. 496-518· 0 citations
Abstract
Music engages an unusually distributed set of cortical and subcortical systems, spanning auditory, motor, limbic and prefrontal territories, and has therefore become a widely used model for studying perception, prediction, reward and experience-dependent plasticity in the human brain. Over the past two decades, neuroimaging, electrophysiological and genetic methods have converged to describe how the brain encodes melody, harmony and rhythm, how listening to preferred music engages corticostriatal reward circuitry, and how sustained musical training reshapes auditory, motor and interoceptive networks. This critical narrative review synthesises evidence from cognitive, developmental, clinical and cross-cultural neuroscience to evaluate the strength, consistency and limitations of current knowledge on the effects of music on brain activity. The review examines four broad areas: the neural architecture of music perception and its formulation within predictive-coding accounts; the reward and emotional response to music and its individual variability; structural and functional plasticity associated with musical training, including the persistently contested question of transfer to non-musical cognition; and the translation of auditory-motor and reward mechanisms into neurorehabilitation for Parkinson's disease, post-stroke aphasia and motor impairment, and dementia-related agitation. Genetic, developmental and cross-cultural findings are integrated to indicate that musicality reflects a highly polygenic and only partially culture-general trait. Across these domains, the literature shows areas of convergent, replicated evidence, particularly for auditory-motor coupling and mesolimbic reward engagement, alongside areas of unresolved disagreement, most notably the magnitude and generalisability of cognitive transfer from musical training and the mechanistic basis of neurorehabilitative benefit. Methodological constraints common to the field, including modest sample sizes, heterogeneous outcome measures and inconsistent control conditions, are shown to limit the strength of causal inference that can currently be drawn. The review concludes that music exerts measurable and mechanistically plausible effects on brain structure, function and behaviour, but that confidence in specific causal claims varies substantially across sub-domains and warrants more cautious interpretation than is often conveyed in secondary literature.
Music engages a wide range of cognitive and affective processes; however, the precise mechanisms by which music shapes brain activity remain incompletely understood. Human intracranial electrophysiology (iEEG) provides a unique opportunity to answer this question through direct recordings of neural activity with high s...
Rena Far, Kasthuri Theivendirarajah, Kyeongeun Kim et al.· Neuroscience and Biobehavior...· 0 citations
Musical training plays a significant role in cognitive advancement by enhancing multiple cognitive domains and supporting academic achievement. Learning music strengthens attention, memory, and executive functions, as it requires sustained focus, working memory, inhibitory control, and cognitive flexibility. Active eng...
Gabrijela Grujić, Tatjana Marinkovic, Dragan Marinkovic· Limes-Plus· 0 citations
Among sensory inputs, auditory information plays a significant role. Neural entrainment may establish a bridge for the brain’s perception of rhythmic sound signals. It refers to the synchronization of ongoing neuronal activity with internal and external rhythmic stimuli, demonstrating the brain’s plasticity and adaptiv...
Hua Yang, Yan Li, Zi-Yi Chen et al.· Frontiers in Human Neuroscie...· 0 citations
Findings from phylogeny and ontogeny suggest that beat perception reflects an early‐emerging, biologically prepared capacity that is further shaped by experience.
G. Háden, H. Honing· Annals of the New York Acade...· 0 citations
Reward operates as a cycle in which a stimulus produces a pleasure response, and the degree of pleasure experienced reinforces the behaviours that lead back to it. Music provides a useful model for examining this cycle because it is intrinsically pleasurable, can be learned, and engages reward-related frontostriatal ci...
Sofia Simonetto-Rizk, Ya-Nan Liu, Jérémie Ginzburg et al.· bioRxiv· 0 citations
Memory encoding is the foundational process by which the brain transforms sensory input into lasting representations. While the neural mechanisms of auditory memory have been extensively studied, how musical complexity modulates the neural activity during memory encoding remains poorly understood. Here, we used magneto...
G. Fernández-Rubio, L. Bonetti, M. Kringelbach et al.· bioRxiv· 0 citations
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