Mysterious substance detected on surfaces of Titan and Pluto

Researchers have identified an unknown compound absorbing specific wavelengths of light on both Saturn's moon Titan and the dwarf planet Pluto. The finding comes from data collected by the James Webb Space Telescope.

Bruno Bézard at the Paris Observatory led the team that spotted the narrow absorption band on Titan and a broader version of the same feature on Pluto. Both worlds share similar atmospheric chemistry dominated by nitrogen and methane, which produces haze particles that settle on their surfaces.

The compound does not match any known substances from Titan's atmosphere or common ices. A few near-matches exist, but researchers say the material is likely complex and may differ slightly in grain size between the two bodies.

Further work includes additional JWST observations to map the substance's location on Titan, ongoing laboratory tests, and data from NASA's Dragonfly mission, which is scheduled to launch in 2028 and land on Titan in 2034.

Labaran da ke da alaƙa

A team of astronomers in Japan has discovered evidence of a faint atmosphere surrounding the small trans-Neptunian object 2002 XV93. Previously, only Pluto was known to retain an atmosphere among bodies beyond Neptune due to its stronger gravity. The finding, made via a rare stellar occultation on January 10, 2024 and published in Nature Astronomy, indicates a short-lived atmosphere requiring continuous replenishment.

An Ruwaito ta hanyar AI

Astronomers using the James Webb Space Telescope have detected an unusually metal-poor atmosphere on the Jupiter-sized exoplanet TOI-5205 b, which orbits a small, cool star. The planet's atmospheric metallicity is lower than that of its host star, challenging theories of giant planet formation. The findings come from a study led by researchers at NASA's Goddard Space Flight Center and Carnegie Science.

A comet from beyond our solar system shows dramatically higher levels of deuterium-rich water than any object seen locally. The findings suggest it formed under much colder conditions than those in our own planetary neighborhood. Researchers used observations from two major telescopes to make the measurements.

An Ruwaito ta hanyar AI

Researchers have traced the origins of diverse early space rocks to a dust trap just outside Jupiter's orbit. The findings come from computer simulations matching meteorite compositions found on Earth. They suggest this region produced multiple generations of planetesimals over millions of years.

Wannan shafin yana amfani da cookies

Muna amfani da cookies don nazari don inganta shafin mu. Karanta manufar sirri mu don ƙarin bayani.
Ƙi