Learning how to play an instrument has benefits far beyond musical skills. (Photo by ZoneCreative on Shutterstock)
Brain scans show that playing an instrument builds lasting attention stamina and sharpens concentration.
In A Nutshell
- Musical training is linked to stronger top-down focus and fewer distractions.
- Brain scans show left and right parietal regions play different roles in attention.
- Musicians sustain concentration longer, especially in challenging listening tasks.
- Even modest training shows benefits, though the study cannot prove direct causality.
CAMBRIDGE, Mass. — Scientists have uncovered something remarkable about how musical experience shapes the brain: people with musical training show measurably different patterns of brain activity in the networks that control attention and focus. New research reveals that learning to play an instrument appears to restructure how the brain manages concentration and distraction, creating a more refined attention system that helps musicians filter through competing sounds with greater precision.
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The study found that participants with more musical experience showed stronger brain activity in regions responsible for deliberate focus, while simultaneously showing reduced activity in areas that respond to automatic distractions. Using cutting-edge brain imaging technology, researchers demonstrated that musical background was linked to more effective attention networks, ones better at homing in on relevant sounds while blocking out interruptions.
For anyone who struggles with concentration in our noisy, fast-paced world, these findings point to musical training as a potentially powerful way to strengthen mental focus. Even better, the cognitive benefits appear to extend far beyond music itself, potentially improving attention in everyday situations where distractions abound.
How Scientists Tracked Two Melodies at Once
Studying what happens in the brain when multiple sounds compete for attention presents a major challenge. Traditional neuroscience methods often blur responses together, making it nearly impossible to determine which brain signals correspond to which sounds.
To solve this puzzle, researchers at MIT and Karolinska Institute used an innovative technique called frequency tagging. This method assigns each sound its own unique “neural fingerprint.” In their study, they created two different melodies: one low-pitched melody tagged at 39 Hz and one high-pitched melody tagged at 43 Hz. These distinct frequencies allowed the research team to track precisely which melody each participant’s brain was processing at any given moment.
Forty-eight participants listened to both melodies simultaneously through headphones. They were instructed to focus on either the high or low melody and report when they heard pitch changes as the music stopped. Throughout the experiment, brain activity was monitored using magnetoencephalography (MEG), a highly sensitive technique that detects the magnetic fields produced by neural activity.
Rather than simply categorizing people as “musicians” or “non-musicians,” the researchers measured musical background using the Goldsmiths Musical Sophistication Index. This comprehensive assessment evaluates musical skills, training, and engagement across multiple dimensions, providing a more nuanced picture of each participant’s musical experience.

Musical Experience Shapes Brain Networks Differently
Brain scans revealed striking differences linked to musical training. In the left parietal cortex, a brain region crucial for controlled attention, participants with greater musical experience showed stronger activation when focusing on their chosen melody. Conversely, in the right parietal cortex, more musical training was associated with reduced automatic responses to distracting sounds.
This pattern suggests that musical experience helps tip the brain’s balance toward goal-directed concentration while dampening reflexive reactions to irrelevant information. The result is a clearer separation between deliberate focus and automatic distraction.
Task performance reflected these neural differences. Participants with more musical training excelled at staying locked onto their chosen melody while tuning out the competing one.
“Success in performing the experimental task requires participants to actively direct top-down selective attention toward the attended melody while inhibiting bottom-up attentional diversions toward task-irrelevant, salient pitch changes in the competing melody,” the researchers write in their paper, published in Science Advances.
Building Attention That Lasts
Musical training appeared to enhance not just the strength of focus, but also how long people could sustain it. Using time-based analysis, researchers identified two distinct patterns among participants: “early attenders,” whose attention peaked quickly but then declined, and “late attenders,” who built up focus more gradually but maintained it longer throughout each trial.
Late attenders performed significantly better on the listening tasks and tended to have more extensive musical backgrounds. The key brain region driving this difference was the right prefrontal cortex, particularly an area called the orbital gyrus, which showed stronger sustained attention patterns in participants with higher musical sophistication scores.
This finding suggests that musical training specifically strengthens the brain’s ability to maintain concentration even after the initial novelty of a task wears off. It’s a skill that proves valuable in many real-world situations requiring prolonged focus.
Importantly, the research points to more efficient neural processing rather than simply working harder. Participants with musical training showed more precise discrimination between the sounds they were focusing on and those they were ignoring, indicating their brains were using cognitive resources more effectively.
Beyond Music: Real-World Benefits
While this study examined responses to simple melodies, the broader applications extend far beyond the concert hall. The same attention networks that help musicians follow a melody amid competing sounds are the ones we rely on when focusing during a lecture, filtering out background chatter during conversations, or reading in a busy coffee shop.
The research methodology itself represents a significant advance in understanding how we process complex, real-world soundscapes. By successfully separating simultaneous brain responses with unprecedented precision, scientists can now study how the brain manages overlapping auditory information in ways that more closely mirror everyday listening challenges.
Another encouraging finding: the benefits appeared to scale with experience. Even participants with modest amounts of musical training showed measurable improvements in attention networks, suggesting the brain begins adapting relatively early in the learning process.
Unlike brain-training apps or specialized cognitive exercises, learning an instrument engages multiple brain systems simultaneously. They include motor control, auditory processing, memory, and emotional centers. This multi-system engagement may help explain why musical practice appears to produce such broad improvements in attention and focus.
The researchers are careful to note that their study design cannot prove direct causation. While the relationship between musical training and stronger attention networks is clear, whether training directly causes these changes or reflects pre-existing differences remains an open question for future research.
Still, for parents considering music lessons for their children or adults thinking about picking up an instrument, this research offers encouraging evidence that the cognitive benefits extend well beyond musical ability itself. In a world where the capacity to focus amid distractions has become increasingly valuable, musical training appears to offer a path toward building more resilient attention skills that serve us in countless aspects of daily life.
Disclaimer: This article is for general informational purposes only. It summarizes scientific research but is not medical or professional advice. Always consult a qualified professional for concerns about brain health or learning methods.
Paper Summary
Methodology
Researchers studied 48 participants (28 in experiment I, 20 in experiment II) using frequency tagging to track brain responses to simultaneous melodies. Each melody was tagged with a unique frequency (39 Hz or 43 Hz), creating identifiable brain wave patterns. Participants listened through headphones while brain activity was recorded using magnetoencephalography (MEG). They focused on one melody and reported pitch changes. Musical ability was assessed using the Goldsmiths Musical Sophistication Index questionnaire.
Results
Musical training correlated strongly with task performance across experiments. Brain imaging revealed enhanced top-down attention in the left parietal cortex and reduced bottom-up distraction in the right parietal cortex among more musically trained participants. The prefrontal cortex showed sustained attention patterns correlating with both musicality and performance. Musicians demonstrated superior ability to maintain focus over time and resist competing auditory distractions.
Limitations
The study used artificially modified melodies with amplitude modulation that reduced sound quality and naturalness. Replicating the specialized audio setup requires expensive equipment. The study design prevented establishing direct causality between musical training and attention improvements, requiring caution in interpreting the relationship as definitively causal rather than correlational.
Funding and Disclosures
Research was supported by the Swedish Foundation for Strategic Research and the Knut and Alice Wallenberg Foundation. Data collection occurred at the Swedish National Facility for Magnetoencephalography at Karolinska Institutet. Authors declared no competing interests. All code and analysis materials are publicly available.
Publication Details
Manting, C. L., Pantazis, D., Gabrieli, J., & Lundqvist, D. (2025). “How musicality enhances top-down and bottom-up selective attention: Insights from precise separation of simultaneous neural responses,” published in Science Advances on September 17, 2025.