The quasar existed 12.9 billion years ago and shows that supermassive black holes were able to age rapidly in the early universe.
Astronomers using the James Webb Space Telescope may be close to solving the mystery of "little red dots" in the early universe.
Using just a pen and paper, a team of scientists has calculated how space and time could crystallize to form tiny black holes.
Astronomers have discovered a distant quasar powered by a feeding supermassive black hole blasting out winds at record-breaking speeds for such an outflow seen in ultraviolet light, traveling at 30% the speed of light.
After searching for 50 years, astronomers have finally discovered powerful winds blowing from Sagittarius A*, the supermassive black hole at the heart of our galaxy.
New research suggests primordial black holes born during the Big Bang could live much longer than previously estimated — long enough to become energy-spewing white holes.
This could change our understanding of how the cosmic titans collide.
Observations of "Little Red Dot" ancient galaxies by the James Webb Space Telescope could answer the question: which comes first, the black hole or its galaxy? The shocking answer could represent a complete paradigm shift.
The most energetic "ghost particle" neutrino ever detected may have been blasted at Earth by blazars, suggesting that these events and their black hole engines are powerful cosmic particle accelerators.
Powerful bright blue cosmic explosions called Luminous Fast Blue Optical Transients could be caused when a black hole or neutron star slams into the universe's hottest class of star.
