NASA’s James Webb Telescope has done it again. This time, the telescope found what NASA called a “crucial” carbon molecule in space for the first time. This is significant to scientific advancement because carbon is the basis for all known life and as such is particularly interesting to scientists working to understand both how life developed on Earth, and how it could potentially develop elsewhere in our universe.
In the last few months alone, the James Webb telescope captured images of what NASA described as a “stunning smash-up” of two spiral galaxies, shown that the galaxies transformed the very nature of the universe in its infancy, found water vapor around a comet in the main asteroid belt and found even more galaxies out there in the vastness of space.
The study of interstellar organic (carbon-containing) chemistry, which Webb is opening in new ways, is an area of keen fascination to many astronomers, explained NASA. The unique capabilities of Webb made it an ideal observatory to search for this crucial molecule. Webb’s exquisite spatial and spectral resolution, as well as its sensitivity, all contributed to the team’s success. In particular, Webb’s detection of a series of key emission lines from CH3+ cemented the discovery.
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A team of international scientists used NASA’s James Webb Space Telescope to detect the new carbon compound. Known as methyl cation (pronounced cat-eye-on) (CH3+), the molecule is important because it aids the formation of more complex carbon-based molecules. Methyl cation was detected in a young star system, with a protoplanetary disk, known as d203-506, which is located about 1,350 light-years away in the Orion Nebula.
“This detection not only validates the incredible sensitivity of Webb but also confirms the postulated central importance of CH3+ in interstellar chemistry,” said Marie-Aline Martin-Drumel of the University of Paris-Saclay in France, a member of the science team.
While the star in d203-506 is a small red dwarf, the system is bombarded by strong ultraviolet (UV) light from nearby hot, young, massive stars. Scientists believe that most planet-forming disks go through a period of such intense UV radiation since stars tend to form in groups that often include massive, UV-producing stars.
Broadly, the team notes that the molecules they see in d203-506 are quite different from typical protoplanetary disks. In particular, they could not detect any signs of water.
“This clearly shows that ultraviolet radiation can completely change the chemistry of a protoplanetary disk. It might actually play a critical role in the early chemical stages of the origins of life,” elaborated Olivier Berné of the French National Centre for Scientific Research in Toulouse, lead author of the study.