Gravitational Waves Reveal Black Hole Ancestry Through Spin Analysis
Gravitational waves are unlocking the origins of black holes, linking spin shifts to sequential mergers in star clusters.
Machine learning approach can enhance observatory's hunt for gravitational waves
Finding patterns and reducing noise in large, complex datasets generated by the gravitational wave-detecting LIGO facility ...
the-ambient22d
Beyond Matter: Z-Wave plotting its own path in an ever-changing landscape
But, before we dive into Matter (you knew that’s what I was talking about, right?) let’s catch up with everything Rosenthal had to say about Z-Wave first. After all, that was the main reason he sat ...
Popular Mechanics22d
Scientists Held an Extreme Atomic Experiment—and Challenged the Notions of What’s Possible
On September 14, 2015, for the first time ever, the Laser-Interferometer Gravitational ... the momentum imparted by the grating to the matter wave,” but the size of grating periods are currently ...
Hosted on MSN23d
Detecting Gravitational Waves Is Harder Than You Think Which Is Why We Need an Observatory
Gravitational Waves were only first observed in 2015, captured via instruments at the Laser Interferometer Gravitational-wave Observatory. This is going to change the way we look at physics ...
Space.com24d
Dark matter may have caused a baffling break in this star stream
"It marks an exciting step forward in our understanding of dark matter and the dynamics of the Milky Way." A perplexing "break" in a stream of stars around the Milky Way could be the result of ...
sci25d
LIGO Searches for Gravitational Waves Produced by Neutron-Star Mountains
Neutron-star mountains would be much more massive than any on Earth — so massive that gravity just from these mountains could produce gravitational waves. The Laser Interferometer Gravitational Wave ...
IEEE Spectrum on MSN25d
Engineering a New Dark Matter Detector
W hat will it take to detect dark matter—the invisible, nigh-intangible substance that might make up five-sixths of all ...
EurekAlert!26d
A novel gravitational wave observatory configuration—Tetrahedron Constellation Gravitational Wave Observatory (TEGO)
By employing advanced Time-Delay Interferometry (TDI) technology, TEGO can effectively suppress laser frequency noise, thereby improving the sensitivity to gravitational wave signals. Additionally ...