A frigid brine, isolated from the outside world for about three millennia underneath a thick layer of ice in an Antarctic lake, harbors life, according to a research team that includes scientists from the University of Colorado Boulder.
The finding, published in the Proceedings of the National Academy of Sciences, offers a hint to how life might be able to thrive in extreme, icy conditions elsewhere in our solar system, such as those found on Saturn’s moon Enceladus, Jupiter’s moon Europa or on Mars.
The wild and dramatic cascade of ice into the ocean from Alaska’s Columbia Glacier, an iconic glacier featured in the documentary “Chasing Ice” and one of the fastest moving glaciers in the world, will cease around 2020, according to a study by the University of Colorado Boulder.
In a new paper released today in Nature, BioFrontiers Institute scientists at the University of Colorado Boulder, Tom Cech and Leslie Leinwand, detailed a new target for anti-cancer drug development that is sitting at the ends of our DNA.
Since its formation 50 years ago, JILA, the joint institute of the University of Colorado Boulder and the National Institute of Standards (NIST), has been the site of groundbreaking research and has produced three Nobel Prize winners, including its current chair, Eric Cornell. He shared the esteemed award in physics in 2001 for discovering the fifth state of matter and producing the first “pure” Bose-Einstein condensate.
Scientists have disagreed for many years over the precise cause for a period of cooling global temperatures that began after the Middle Ages and lasted into the late 19th century, commonly known as the Little Ice Age.
If you are college-age or younger, you might just live to see the day when hail disappears from the eastern flanks of Colorado’s Rocky Mountains.
A new modeling study involving the Cooperative Institute for Research in Environmental Sciences, a joint institute of the University of Colorado Boulder and the National Oceanic and Atmospheric Administration, indicates hail will likely cease to fall in those locales by the year 2070, a result of rising temperatures.
In 1977, Jimmy Carter was sworn in as president, Elvis died, Virginia park ranger Roy Sullivan was hit by lightning a record seventh time and two NASA space probes destined to turn planetary science on its head launched from Florida.
Physicists at JILA on the CU-Boulder campus have for the first time observed chemical reactions near absolute zero, demonstrating that chemistry is possible at ultralow temperatures and that reaction rates can be controlled using quantum mechanics, the peculiar rules of submicroscopic physics.
Using skills passed down through generations, Inuit forecasters living in the Canadian Arctic look to the sky to tell by the way the wind scatters a cloud whether a storm is on the horizon or if it’s safe to go on a hunt. Thousands of miles away in a lab in Colorado’s Rocky Mountains, scientists take data measurements and use the latest computer models to predict weather. These are two practices serving the same purpose that come from disparate worlds.
CU-Boulder professors Margaret Murnane and Henry Kapteyn lead an interdisciplinary research group at JILA, a joint institute of the university and the National Institute of Standards and Technology, where they have made groundbreaking strides in laser science by developing new ultra-fast lasers and X-ray sources for experiments in physics, chemistry, materials science, and engineering. Their pioneering research resulted in the development of ultra-fast optical and coherent soft X-ray sources.