Cosmic Rays Near and Far
How do cosmic rays move through the galaxy? Thanks to data collected by the aging Voyager 1 spacecraft, astronomers are closer to finding out.
How do cosmic rays move through the galaxy? Thanks to data collected by the aging Voyager 1 spacecraft, astronomers are closer to finding out.
The cratered surfaces of our solar system’s moons record impacts reaching back billions of years. How do researchers measure the ages of these surfaces, and what can these ages tell us about how the moons formed?
Astrobites reports on a tragic final encounter between a supermassive black hole and a stellar neighbor that came a bit too close.
Take a moment to delve into three solar physics research articles with us today to learn how researchers are studying our home star.
If simulations “remember” the conditions they started with, that could complicate the modeling of magnetized accretion disks around supermassive black holes.
The merger of two stars can make a blue supergiant, suggesting that many of the galaxy’s brightest stars are not born, but made.
Astrobites reports on a study that aims to determine whether the sources of gamma-ray bursts could also be a source of ghostly neutrinos.
A giant star-forming region in the Milky Way has a new infrared portrait, thanks to a telescope flying through the stratosphere.
Fitting models to pulsar arrival times is typically a tricky business. A new algorithm might let computers take on some of the decision-making burdens.
The Event Horizon Telescope Collaboration has analyzed data that show our home galaxy’s central black hole in a new light — polarized light, to be precise.
Astrobites reports on how we can find isolated black holes by searching for the twinkling of stars that these black holes pass in front of.
When white dwarfs begin to crystallize, can the change prompt the formation of magnetic fields millions of times stronger than Earth’s?