Champagne Bubble Mystery Solved
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.
Bubbly is no secret to science. When you pop a Champagne cork, yeasts ferment sugars and form carbon dioxide gas.
But only recently has a solution to spirit's mysterious gas "trains"—the tiny beads of rising air that gives champagne its sparkle—bubbled to the surface.
Scientists at the University of Reims, France have discovered that tiny gas pockets and fibers stuck on the inside of a glass—from dust or a towel used for drying—influence the timing of the bubble trains.
"Fibers entrap a tiny air pocket when Champagne is poured," said physicist Gerard Liger-Belair. "Then, this tiny air pocket literally sucks the [dissolved] carbon dioxide."
The gas bubbles grow inside the fibers, detaching from them once they reach the tip of a fiber.
Filming bubbles in a lab setting with high-speed cameras, Liger-Belair observed that as the concentration of carbon dioxide decreases in the Champagne, the distance between bubbles can suddenly change. That's why your celebratory beverage bubbles at different rates as you sip.
"This tiny bubbling system is the smallest bubbling system presenting such instabilities ever observed," Liger-Belair told LiveScience. "And what a beguiling place to discover it!"
Get the world’s most fascinating discoveries delivered straight to your inbox.
The findings are published in the Oct. 4 issue of the journal Agriculture and Food Chemistry.
The discovery suggests an experiment you can try at home. To add more fizz to a flute, wipe a glass with zeal to leave behind extra fibers. Or if you prefer a calmer toast, air-dry glasses upside down.
- Learn More : Why Does Soda Fizz?
Mystery Monday: Each Monday, this LiveScience series explores an amazing aspect of the world around you. Previous Mystery Monday articles:
