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Copernical Team
Cosmic ray counts hidden in spacecraft data highlight influence of solar cycle at Mars and Venus
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![](https://www.spxdaily.com/images-bg/solar-cycle-25-prediction-chart-bg.jpg)
NASA's Roman Mission completes key optical components
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![](https://www.spxdaily.com/images-bg/nasa-nancy-grace-roman-space-telescope-element-wheel-assembly-bg.jpg)
Sierra Space selected by Maxar to provide solar power solutions for constellation of proliferated LEO satellites
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![](https://www.spxdaily.com/images-bg/sierra-space-solar-cell-panels-maxar-satellite-constellation-bg.jpg)
Impact-induced formation of microscopic magnetite first confirmed in Chang'E-5 lunar soil
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![](https://www.spxdaily.com/images-bg/spherical-iron-sulfide-particles-containing-magnetite-chang-e-5-lunar-soil-bg.jpg)
Second Time's the Charm: Sols 3671-3673
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![](https://www.spxdaily.com/images-bg/curiosity-mars-science-laboratory-roxinho-sol-3667-bg.jpg)
Plant on China's Shenzhou-15 spaceship begins growing
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![](https://www.spxdaily.com/images-bg/china-space-station-plant-flag-bg.jpg)
Methods for building lunar landing pads may involve microwaving moon soil
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![](https://www.spxdaily.com/images-bg/icon-lunar-3d-moon-base-nasa-bg.jpg)
Giant mantle plume reveals Mars is more active than previously thought
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![](https://www.spxdaily.com/images-bg/mars-active-mantle-plume-elysium-planitia-volcanism-originates-cerberus-fossae-young-fissures-bg.jpg)
NASA's Orion spaceship slingshots around Moon, heads for home
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Researchers say space atomic clocks could help uncover the nature of dark matter
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![Artist's impression of a space atomic clock used to uncover dark matter. Credit: Kavli IPMU Researchers say space atomic clocks could help uncover the nature of dark matter](https://scx1.b-cdn.net/csz/news/800a/2022/researchers-say-space.jpg)
Studying an atomic clock on-board a spacecraft inside the orbit of Mercury and very near to the sun might be the trick to uncovering the nature of dark matter, suggests a new study published in Nature Astronomy.
Dark matter makes up more than 80% of mass in the universe, but it has so far evaded detection on Earth, despite decades of experimental efforts. A key component of these searches is an assumption about the local density of dark matter, which determines the number of dark matter particles passing through the detector at any given time, and therefore the experimental sensitivity.
In some models, this density can be much higher than is usually assumed, and dark matter can become more concentrated in some regions compared to others.
One important class of experimental searches are those using atoms or nuclei, because these have achieved incredible sensitivity to signals of dark matter.