Spotlighting the Ballet of Mitosis
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.
Like a pair of dancers sheathed in blue, two chromosomes take the cell's center stage in this scene from the elegant — and usually perfectly performed — process of mitosis.
Mitosis divides a single cell into two new cells, which is essential for cellular growth, reproduction and repair. During this delicate production, supporting dancers called spindle fibers, shown in red, ensnare the chromosomes, grasping them with the aid of harness-like structures called kinetochores, shown in green. Each chromosome is then gracefully escorted in opposing directions by the spindle fibers. This splits the duplicated genetic material in two for each of the new cells.
Indiana University researcher Jane Stout captured the stunning scene using a powerful OMX light microscope, which was funded through a National Institutes of Health grant to explore a number of important biological processes. Prior to the OMX microscope, scientists had the "cheap seats"— the best imaging tools could only depict the performers of mitosis as a bright, nebulous mass enclosed in a harried arrangement of overlapping lines.
The new microscope is like a ticket for orchestra seating. It uses a combination of four separate digital cameras and different colored lasers to take snapshots as frequently as every 10 milliseconds, producing three-dimensional images with extremely high resolution. These capabilities illuminate the locations of proteins involved in complex biological processes, including mitosis.
The increased detail will help scientists better understand what happens when the performance doesn't go as planned. Errors in mitosis can lead to unregulated cell division, as seen in many types of cancer.
The vivid images produced by the state-of-the-art system prompted the Indiana University scientists to dub it the "OMG microscope." Judges of the 2012 GE Healthcare Life Sciences Cell Imaging Competition were equally amazed. Stout's image was awarded first place in the high- and super-resolution microscopy category. As part of the prize, the image will be shown in high definition on an electronic billboard at 42nd Street and 7th Avenue in New York City's Times Square on Saturday, April 20, and on Sunday, April 21.
This Inside Life Science article was provided to LiveScience in cooperation with the National Institute of General Medical Sciences, part of the National Institutes of Health.
Get the world’s most fascinating discoveries delivered straight to your inbox.
