The heat
generated by the black hole then heats up the gas again and pushes it outward to restart the whole process.
Not exact matches
These gravitational waves were
generated by two
black holes — eight and 14 times the mass of the sun — merging together 1.4 billion light years away from Earth.
Black hole coalescences aren't expected to
generate light that could be spotted
by telescopes, but another prime candidate could: a smashup between two remnants of stars known as neutron stars.
Taken with the orbiting Chandra Observatory, it shows the hottest, most violent objects in the galaxy:
black holes gobbling down matter, gas heated to millions of degrees
by dense, whirling neutron stars, and the high - energy radiation from stars that have exploded, sending out vast amounts of material that slam into surrounding gas, creating shock waves that heat the gas tremendously,
generating X-rays.
Microlensing
by a 30 - solar - mass
black hole should
generate a rapid echo of a burst, making the
black hole easier to detect.
As early as 2021 it will be joined
by the Einstein Probe, a wide - field x-ray sentinel for transient phenomena such as gamma ray bursts and the titanic collisions of neutron stars or
black holes that
generate gravitational waves.
Gravitational waves detectable from Earth are
generated by collisions of massive objects, such as when two
black holes or neutron stars merge.
For this theory to work, the beams released
by black holes would have to have strong, self -
generated magnetic fields and the rotation of particles around the fields would then give off powerful bursts of gamma ray radiation.
BlackGEM is going to hunt down optical counterparts of sources of gravitational waves — tiny ripples in spacetime
generated by colliding
black holes and neutron stars and detected for the first time in 2015
by the Laser Interferometer Gravitational - Wave Observatory (LIGO).
The detector will pick up gravitational waves
generated by binary supermassive
black holes, ultra-compact binaries and small
black holes falling into supermassive
black holes.
Four decades after surprising the physics world
by showing that
black holes might
generate radiation and evaporate, Stephen Hawking has now published research describing how information might survive to escape from such an astronomical sink
hole, too, The New York Times reports.
The rapid rotation created
by mass transfer between the two stars appears necessary to
generate the ultra-strong magnetic field and then a second mass transfer phase allows the magnetar - to - be to slim down sufficiently so that it does not collapse into a
black hole at the moment of its death.
Gravity waves should be
generated by many sources, including colliding
black holes and exploding stars, but LISA should also be able to detect waves created immediately after the birth of the cosmos.
He developed a theory that posits the existence of a vast number of unseen universes, each
generated by the collapse of a
black hole.
Within this fragmenting disk, compression spurred on
by the
black hole appeared to
generate temperatures high enough to sustain the formation of very massive stars.
Until recently, it was not clear what prevented the delicate filaments from being destroyed
by competing gravitational forces, but Hubble Space Telescope images suggest they are supported
by magnetic fields
generated near the galaxy's central
black hole.
Gravitational waves are ripples in the fabric of space - time
generated by some of the most violent events in the universe, such as the merging of two
black holes.
The team also succeeded in explaining, with a theoretical model, that the actual changes (balance of inflow and outflow) in gas levels they observed were the result of the increasing amount of gas falling into the supermassive
black holes within the gas disks enhanced
by strong turbulence
generated by supernova explosions (an activity associated with star formation) when a star inside the dense gas disks dies.
Like the historic first detection announced this past February, these gravitational waves were also
generated by the merger of two
black holes.
By hurling protons together at 14 trillion electron volts, it will create the kinds of high - energy collisions that are supposed to
generate microscopic
black holes.
A new study suggests that the gravitational waves detected
by the LIGO experiment must have come from
black holes generated during the collapse of stars, and not in the earliest phases of the Universe.
The supermassive
black hole in the AGN devours surrounding materials
by its strong gravity and
generates a disk around the
black hole.
The first two detections of gravitational waves
generated by the collision of two
black holes were reported last year.
Supported
by the National Science Foundation, IceCube is capable of capturing the fleeting signatures of high - energy neutrinos — nearly massless particles
generated, presumably,
by dense, violent objects such as supermassive
black holes, galaxy clusters, and the energetic cores of star - forming galaxies.
For the fourth time, scientists have detected the gravitational waves
generated by two colliding
black holes.
The gravitational waves were
generated by the merger of two medium - size
black holes about 1.3 billion years ago, researchers said.
Astronomers believe that supermassive, central
black holes generate the radio, X-ray, and gamma - ray energy radiated
by active galaxies such as Centaurus A, as well as quasars like SDSS J1030 +0524.
But today it seems like
black holes - given how much energy they emit - can actually be important for modulating galaxy assembly,
by regulating star formation and
generating hot gas reservoirs.