Skip to content
ScienceBlog.com
  • Featured Blogs
    • EU Horizon Blog
    • ESA Tracker
    • Experimental Frontiers
    • Josh Mitteldorf’s Aging Matters
    • Dr. Lu Zhang’s Gondwanaland
    • NeuroEdge
    • NIAAA
    • SciChi
    • The Poetry of Science
    • Wild Science
  • Topics
    • Brain & Behavior
    • Earth, Energy & Environment
    • Health
    • Life & Non-humans
    • Physics & Mathematics
    • Social Sciences
    • Space
    • Technology
  • Our Substack
  • Follow Us!
    • Bluesky
    • Threads
    • FaceBook
    • Google News
    • Twitter/X
  • Contribute/Contact

Dark Matter

This wide field shows the extended stellar halo of NGC 6505 and showcases the Einstein ring, surrounded by colourful foreground stars and background galaxies.

Europe’s New Space Telescope Finds Perfect ‘Ring of Light’ Predicted by Einstein

Argonne’s Aurora exascale supercomputer brings powerful capabilities for research involving simulation, AI and data analysis.

World’s Most Powerful Computer Hunts for Universe’s Dark Secrets

An illustration of small primordial black holes. In reality, such tiny black holes would have a difficult time forming the accretion disks that make them visible here.

Tiny Black Holes May Leave Their Mark in Everyday Objects Here on Earth

The image shows the predicted flux of antihelium-3 produced from dark matter (WIMPs) that annihilate producing these antinuclei. Each color represents the prediction for a different mass of dark matter, as shown in the legend. t The bands are almost touching the AMS-02 sensitivity, which means that in some optimistic cases, WIMPs can explain this discrepancy.

Glimmers of antimatter to explain the “dark” part of the universe

Velocity streamlines within the reconstructed volume, with colored envelopes associated with the prominent nearby basins of attraction. The map and streamlines have been cropped to the region covered by Cosmicflows-4 data. The streamlines within a given basin converge onto the region of high concentration of galaxies.

New Study Maps Gravitational ‘Basins of Attraction’ in the Local Universe

An artist’s illustration depicts a primordial black hole (at left) flying past, and briefly “wobbling” the orbit of Mars (at right), with the sun in the background. MIT scientists say such a wobble could be detectable by today’s instruments. Credits:Credit: Image by Benjamin Lehmann, using SpaceEngine @ Cosmographic Software LLC.

Mars’ Wobble Could Reveal Dark Matter, MIT Study Suggests

The Short-Baseline Neutrino Detector collaboration celebrated the moment the detector began running at 100% voltage.

Neutrino Detector Marks Milestone in Hunt for Elusive Particle

galaxy seen from the side

New AI Distinguishes Dark Matter from Cosmic Interference

One of the few galaxies with a well-studied stellar halo is our neighbor, Andromeda, depicted here in the graphic. The reason Andromeda’s halo can be investigated so thoroughly is simply a matter of distance, both being close enough and bright enough that we can see the full picture with our current class of telescopes.

NASA’s Roman Space Telescope Set to Unveil Galactic History and Dark Matter Secrets

LUX-ZEPLIN Experiment Narrows the Search for Elusive Dark Matter

LUX-ZEPLIN Experiment Narrows the Search for Elusive Dark Matter

This artist's concept shows what happened when two massive clusters of galaxies, collectively known as MACS J0018.5, collided: The dark matter in the galaxy clusters (blue) sailed ahead of the associated clouds of hot gas, or normal matter (orange). Both dark matter and normal matter feel the pull of gravity, but only the normal matter experiences additional effects like shocks and turbulence that slow it down during collisions.

Dark matter flies ahead of normal matter in mega galaxy cluster collision

Simulation of the light emitted by a supermassive black hole binary system where the surrounding gas is optically thin (transparent). Viewed from 0 degrees inclination, or directly above the plane of the disk. The emitted light represents all wavelengths.

Astrophysicists uncover supermassive black hole/dark matter connection in solving the ‘final parsec problem’

This image shows two panels side by side. The right panel illustrates a spinning top precessing due to gravitational force. The left panel depicts the Galactic disk warp, which behaves similarly to the spinning top. The warp moves in a graceful pattern under the influence of the dark matter halo's gravitational pull. This illustration was created by HOU Kaiyuan and DONG Zhanxun from Shanghai Jiao Tong University.

Milky Way’s Dark Matter Halo Shape Revealed by Galactic Disk Warp

The SOAR Telescope on Cerro Pachon in Chile.

Revived technology used to count individual photons from distant galaxiesRevived technology used to count individual photons from distant galaxies

Older posts
Page1 Page2 Page3 Next →
Substack subscription form sign up

Comments

  • Kidreadytobreed on Global warming reduces available wind energy
  • James on Global warming reduces available wind energy
  • James on Global warming reduces available wind energy
  • Booklet AI on Key to online education: Test early and often
  • Karoly Mirnics on Common Prescription Drugs May Disrupt Cholesterol Pathways in the Womb and Raise Autism Risk
© 2026 ScienceBlog.com | Follow our RSS / XML feed