Running and Learning Use Same Brain Waves
Get the world’s most fascinating discoveries delivered straight to your inbox.
You are now subscribed
Your newsletter sign-up was successful
Want to add more newsletters?
Delivered Daily
Daily Newsletter
Sign up for the latest discoveries, groundbreaking research and fascinating breakthroughs that impact you and the wider world direct to your inbox.
Once a week
Life's Little Mysteries
Feed your curiosity with an exclusive mystery every week, solved with science and delivered direct to your inbox before it's seen anywhere else.
Once a week
How It Works
Sign up to our free science & technology newsletter for your weekly fix of fascinating articles, quick quizzes, amazing images, and more
Delivered daily
Space.com Newsletter
Breaking space news, the latest updates on rocket launches, skywatching events and more!
Once a month
Watch This Space
Sign up to our monthly entertainment newsletter to keep up with all our coverage of the latest sci-fi and space movies, tv shows, games and books.
Once a week
Night Sky This Week
Discover this week's must-see night sky events, moon phases, and stunning astrophotos. Sign up for our skywatching newsletter and explore the universe with us!
Join the club
Get full access to premium articles, exclusive features and a growing list of member rewards.
What do learning and running have in common? They seem to use the same brain waves.
The pattern of brain waves, called the gamma rhythm, "is known to be controlled by attention and learning, but we find it is also governed by how fast you are running," said Mayank Mehta of the University of California, Los Angeles, a researcher in a new study involving mice. "This research provides an interesting link between the world of learning and the world of speed."
The gamma rhythm comes from the hippocampus, the part of the brain associated with memory during concentration and learning. The hippocampus records facts and events as they happen, holding them until they can be formed into long-term memories during sleep. (Injuries to the hippocampus result in damaged ability to form new memories.)
The researchers studied the brain waves of mice as they ran in the lab. Specific spikes in the brain's electrical activity — one way the brain cells communicate — seemed to show an increase in the gamma rhythm as the mice moved faster.
The researchers don't know how this might influence the learning process in the hippocampus.
"Deciphering the language of the brain is one of the biggest challenges that human beings face," Mehta said.
Learning about how the brain works can help researchers understand how the signals go awry, Mehta said. "If we can learn to interpret these brain oscillations, it may be possible to successfully intervene in cases ranging from learning disorders to post-traumatic stress, or even to mitigate the effects of cognitive decline with aging."
Get the world’s most fascinating discoveries delivered straight to your inbox.
The study was published June 24 in PLoS ONE.
You can follow LiveScience staff writer Jennifer Welsh on Twitter @microbelover. Follow LiveScience for the latest in science news and discoveries on Twitter @livescience and on Facebook.
Jennifer Welsh is a Connecticut-based science writer and editor and a regular contributor to Live Science. She also has several years of bench work in cancer research and anti-viral drug discovery under her belt. She has previously written for Science News, VerywellHealth, The Scientist, Discover Magazine, WIRED Science, and Business Insider.

