In most corners of the cosmos, those pairs quickly disappear together back into the vacuum, but at the edge of an event horizon one particle may be
captured by the black hole, leaving the other free to escape as radiation.
• The particle that is
captured by the black hole has negative energy.
To plunge over the event horizon, material
captured by a black hole must lose heat and momentum.
Not exact matches
Subtle cosmic vibrations kicked up
by swirling
black holes have
captured the public imagination — and the minds of the physics Nobel Prize committee members, too.
This quashes hopes of finding low - frequency gravitational waves emitted
by pairs of dense stars, or stars
captured by supermassive
black holes.
On Sept. 14, gravitational waves produced
by a pair of merging
black holes 1.3 billion light - years away were
captured by the Laser Interferometer Gravitational - Wave Observatory (LIGO) facilities in Hanford, Washington, and Livingston, Louisiana.
Magnesium lines are critical for determining a
black holes mass, but for objects at this distance, the redshifting of the light makes them extremely difficult to
capture from the surface of our planet due to absorption
by atmospheric water vapor.
A
black hole captured by a neutron star eats the star from the inside, ultimately destroying the host.
Captured by the Chandra X-ray Observatory in 2013 an outburst 400X brighter is the highest energy event observed so far from our galaxy's central
black hole.
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.
Depending on how the material flows, some of it may eventually be
captured and engulfed
by the
black hole.
An international research team led
by Takuma Izumi, a second - year master's student of science at the University of Tokyo, and Kotaro Kohno, a professor at the University of Tokyo, successfully
captured a detailed image of high - density molecular gas around an active supermassive
black hole at the center of a galaxy called NGC 1097 at the highest sensitivity ever achieved.
SDSS studies have probed the dark matter environments of quasars through clustering measurements, revealed populations of quasars whose central engines are hidden
by obscuring dust,
captured changes in quasar spectra that show clouds moving in the gravitational grip of the central
black hole, and allowed a comprehensive census of the much fainter accreting
black holes (active galactic nuclei, or AGN) in present - day galaxies.
Tron Legacy will be filmed using stop - motion
capture and will be directed
by commercials director Joseph Kosinski who is currently also set to helm the
Black Hole remake...