Mathematical Modeling and Numerical Simulation of Musical Melodies’ Effects on Brain Waves

Brain waves—delta, theta, alpha, beta, and gamma—can be modulated by musical stimuli. The objective of this study is to investigate, through mathematical modeling and numerical simulation, how melodies influence the relative power distribution of these EEG bands. Five formulations were implemented: the first-order linear equation, the linear hyperbolic system, the Burgers equation, the Korteweg–de Vries equation, and a fully nonlinear equation. In all cases, the melody was introduced as a boundary condition or external forcing, and the response was recorded at an interior point of the domain. The results indicate that linear models reproduce the uniform propagation of the stimulus, whereas quasilinear and nonlinear models generate additional modulations associated with dispersion, diffusion, and nonlinear effects. This framework provides a conceptual foundation for future applications in computational neuroscience and music therapy.

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Publication Details

Journal
WSEAS TRANSACTIONS ON ACOUSTICS AND MUSIC
Published
2025-10-10
DOI
https://doi.org/10.37394/232019.2025.12.2
Primary Topic
Neural dynamics and brain function
Type
article
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article

Mathematical Modeling and Numerical Simulation of Musical Melodies’ Effects on Brain Waves

Irla Mantilla, Mihael Arce
WSEAS TRANSACTIONS ON ACOUSTICS AND MUSIC
Neural dynamics and brain function
article

Mathematical Modeling and Numerical Simulation of Musical Melodies’ Effects on Brain Waves

Irla Mantilla, Mihael Arce
article en

Abstract

Brain waves—delta, theta, alpha, beta, and gamma—can be modulated by musical stimuli. The objective of this study is to investigate, through mathematical modeling and numerical simulation, how melodies influence the relative power distribution of these EEG bands. Five formulations were implemented: the first-order linear equation, the linear hyperbolic system, the Burgers equation, the Korteweg–de Vries equation, and a fully nonlinear equation. In all cases, the melody was introduced as a boundary condition or external forcing, and the response was recorded at an interior point of the domain. The results indicate that linear models reproduce the uniform propagation of the stimulus, whereas quasilinear and nonlinear models generate additional modulations associated with dispersion, diffusion, and nonlinear effects. This framework provides a conceptual foundation for future applications in computational neuroscience and music therapy.

WSEAS TRANSACTIONS ON ACOUSTICS AND MUSICVol. 12
National University of Engineering (PE)
Openalex Percentile: Top 71%
Neural dynamics and brain function
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