ZME Science
No Result
View All Result
ZME Science
No Result
View All Result
ZME Science

Home → Health → Mind & Brain

Some people are just wired to like music more, study shows

Mihai AndreibyMihai Andrei
April 18, 2025
in Genetics, Mind & Brain, News, Psychology
A A
Edited and reviewed by Tibi Puiu
Share on FacebookShare on TwitterSubmit to Reddit
Image credits: Wesley Tingey / Unsplash.

Most people enjoy music to some extent. But while some get goosebumps from their favorite song, others don’t really feel that much. A part of that is based on our culture. But according to one study, about half of it is written in our genes.

In one of the largest twin studies on musical pleasure to date, researchers have found that up to 54% of the variation in how much people enjoy music may be inherited.

Why do we even like music?

We don’t fully know why we like music, but science is getting closer. Music doesn’t offer clear survival benefits, yet it reliably evokes strong emotions and can nurture social connections. Some theories suggest it evolved as a tool for bonding or emotional communication, but others see it as a byproduct of more general cognitive abilities like pattern recognition or prediction.

This new study suggests genetics play a key role.

“The answer to this big question has the potential to open a window into more general aspects of the human mind, such as how experiences become pleasurable,” says first author and PhD candidate Giacomo Bignardi, in a press release. “We wanted to understand whether genetic differences between individuals can result in differences in the pleasure that people derive from music and what these differences can tell us about human musicality in general,” the researcher added.

The researchers used data from over 9,000 Swedish twins to study “music reward sensitivity”—a measure of how much pleasure people get from music. This was assessed using the Barcelona Music Reward Questionnaire (which you can also take online). The questionnaire breaks musical enjoyment into five categories: emotional reactions, mood regulation, music seeking, pleasure from movement, and social bonding through music.

They also measured participants’ musical perception skills—like identifying pitch, rhythm, or melody—and general reward sensitivity, such as how much people typically enjoy pleasant experiences.

This let them ask a precise question: do people who love music simply have better hearing or stronger reward systems, or is musical enjoyment its own thing?

RelatedPosts

Your Morning Coffee Might Be Sabotaging Your Meds — Here’s What You Need to Know
Ice Age era caves found below the Canadian city of Montréal
Why do humans have near-equal numbers of male and female babies, unlike many other animals? New study offers some clues
Kids who look at screens before bed time tend to sleep less, get fatter

It’s its own thing

Genetics, as it turns out, plays a big role; but a nuanced one.

The twin study design allowed the team to estimate how much of the differences in musical enjoyment were due to genetics. Monozygotic twins, who share nearly all their genes, had more similar music enjoyment scores than dizygotic twins, who share about half their genes. From this, researchers calculated that music reward sensitivity has a heritability of 54%. It’s a rough calculation, but it highlights the importance of genes for appreciating music.

That number dropped slightly—to about 38%—after accounting for the effects of music perception and general reward sensitivity. This means that it’s not something related to reward sensitivity but something related to music in particular. It also suggests that there are distinct genetic pathways that shape our love for music—ones that aren’t just about hearing ability or whether we’re generally prone to enjoy things.

Interestingly, the team also found that different aspects of music enjoyment—such as feeling emotional versus enjoying social bonding through music—are influenced by partly different genetic factors. This seems to suggest that there’s not only one reason why we like music. Some people may feel an emotional trigger, while others may feel a social or bonding effect. In other words, music doesn’t affect everyone the same way for the same reasons.

“These results may indicate that future investigations… should focus on the separate facets rather than the total music reward sensitivity score,” the authors of the research concluded.

Journal Reference: Bignardi et al. Twin modelling reveals partly distinct genetic pathways to music enjoyment. Nature Communications, 2025; 16 (1) DOI: 10.1038/s41467-025-58123-8

ShareTweetShare
Mihai Andrei

Mihai Andrei

Dr. Andrei Mihai is a geophysicist and founder of ZME Science. He has a Ph.D. in geophysics and archaeology and has completed courses from prestigious universities (with programs ranging from climate and astronomy to chemistry and geology). He is passionate about making research more accessible to everyone and communicating news and features to a broad audience.

Related Posts

Environment

The UK Government Says You Should Delete Emails to Save Water. That’s Dumb — and Hypocritical

byMihai Andrei
2 days ago
Health

In Denmark, a Vaccine Is Eliminating a Type of Cervical Cancer

byMihai Andrei
2 days ago
This Picture of the Week shows a stunning spiral galaxy known as NGC 4945. This little corner of space, near the constellation of Centaurus and over 12 million light-years away, may seem peaceful at first — but NGC 4945 is locked in a violent struggle. At the very centre of nearly every galaxy is a supermassive black hole. Some, like the one at the centre of our own Milky Way, aren’t particularly hungry. But NGC 4945’s supermassive black hole is ravenous, consuming huge amounts of matter — and the MUSE instrument at ESO’s Very Large Telescope (VLT) has caught it playing with its food. This messy eater, contrary to a black hole’s typical all-consuming reputation, is blowing out powerful winds of material. This cone-shaped wind is shown in red in the inset, overlaid on a wider image captured with the MPG/ESO telescope at La Silla. In fact, this wind is moving so fast that it will end up escaping the galaxy altogether, lost to the void of intergalactic space. This is part of a new study that measured how winds move in several nearby galaxies. The MUSE observations show that these incredibly fast winds demonstrate a strange behaviour: they actually speed up far away from the central black hole, accelerating even more on their journey to the galactic outskirts. This process ejects potential star-forming material from a galaxy, suggesting that black holes control the fates of their host galaxies by dampening the stellar birth rate. It also shows that the more powerful black holes impede their own growth by removing the gas and dust they feed on, driving the whole system closer towards a sort of galactic equilibrium. Now, with these new results, we are one step closer to understanding the acceleration mechanism of the winds responsible for shaping the evolution of galaxies, and the history of the universe. Links  Research paper in Nature Astronomy by Marconcini et al. Close-up view of NGC 4945’s nucleus
News

Astronomers Find ‘Punctum,’ a Bizarre Space Object That Might be Unlike Anything in the Universe

byTibi Puiu
2 days ago
News

Drone fishing is already a thing. It’s also already a problem

byMihai Andrei
2 days ago

Recent news

The UK Government Says You Should Delete Emails to Save Water. That’s Dumb — and Hypocritical

August 16, 2025

In Denmark, a Vaccine Is Eliminating a Type of Cervical Cancer

August 16, 2025
This Picture of the Week shows a stunning spiral galaxy known as NGC 4945. This little corner of space, near the constellation of Centaurus and over 12 million light-years away, may seem peaceful at first — but NGC 4945 is locked in a violent struggle. At the very centre of nearly every galaxy is a supermassive black hole. Some, like the one at the centre of our own Milky Way, aren’t particularly hungry. But NGC 4945’s supermassive black hole is ravenous, consuming huge amounts of matter — and the MUSE instrument at ESO’s Very Large Telescope (VLT) has caught it playing with its food. This messy eater, contrary to a black hole’s typical all-consuming reputation, is blowing out powerful winds of material. This cone-shaped wind is shown in red in the inset, overlaid on a wider image captured with the MPG/ESO telescope at La Silla. In fact, this wind is moving so fast that it will end up escaping the galaxy altogether, lost to the void of intergalactic space. This is part of a new study that measured how winds move in several nearby galaxies. The MUSE observations show that these incredibly fast winds demonstrate a strange behaviour: they actually speed up far away from the central black hole, accelerating even more on their journey to the galactic outskirts. This process ejects potential star-forming material from a galaxy, suggesting that black holes control the fates of their host galaxies by dampening the stellar birth rate. It also shows that the more powerful black holes impede their own growth by removing the gas and dust they feed on, driving the whole system closer towards a sort of galactic equilibrium. Now, with these new results, we are one step closer to understanding the acceleration mechanism of the winds responsible for shaping the evolution of galaxies, and the history of the universe. Links  Research paper in Nature Astronomy by Marconcini et al. Close-up view of NGC 4945’s nucleus

Astronomers Find ‘Punctum,’ a Bizarre Space Object That Might be Unlike Anything in the Universe

August 15, 2025
  • About
  • Advertise
  • Editorial Policy
  • Privacy Policy and Terms of Use
  • How we review products
  • Contact

© 2007-2025 ZME Science - Not exactly rocket science. All Rights Reserved.

No Result
View All Result
  • Science News
  • Environment
  • Health
  • Space
  • Future
  • Features
    • Natural Sciences
    • Physics
      • Matter and Energy
      • Quantum Mechanics
      • Thermodynamics
    • Chemistry
      • Periodic Table
      • Applied Chemistry
      • Materials
      • Physical Chemistry
    • Biology
      • Anatomy
      • Biochemistry
      • Ecology
      • Genetics
      • Microbiology
      • Plants and Fungi
    • Geology and Paleontology
      • Planet Earth
      • Earth Dynamics
      • Rocks and Minerals
      • Volcanoes
      • Dinosaurs
      • Fossils
    • Animals
      • Mammals
      • Birds
      • Fish
      • Amphibians
      • Reptiles
      • Invertebrates
      • Pets
      • Conservation
      • Animal facts
    • Climate and Weather
      • Climate change
      • Weather and atmosphere
    • Health
      • Drugs
      • Diseases and Conditions
      • Human Body
      • Mind and Brain
      • Food and Nutrition
      • Wellness
    • History and Humanities
      • Anthropology
      • Archaeology
      • History
      • Economics
      • People
      • Sociology
    • Space & Astronomy
      • The Solar System
      • Sun
      • The Moon
      • Planets
      • Asteroids, meteors & comets
      • Astronomy
      • Astrophysics
      • Cosmology
      • Exoplanets & Alien Life
      • Spaceflight and Exploration
    • Technology
      • Computer Science & IT
      • Engineering
      • Inventions
      • Sustainability
      • Renewable Energy
      • Green Living
    • Culture
    • Resources
  • Videos
  • Reviews
  • About Us
    • About
    • The Team
    • Advertise
    • Contribute
    • Editorial policy
    • Privacy Policy
    • Contact

© 2007-2025 ZME Science - Not exactly rocket science. All Rights Reserved.