Higher - energy collisions, rather than splitting matter into finer pieces, would simply
produce bigger black holes.
Not exact matches
Black hole collisions are one of the few events in the universe that are catastrophic enough to
produce spacetime gyrations
big enough to detect.
Those universes with laws similar to ours will
produce stars, some of which collapse into
black holes and singularities that give birth to new universes — in a manner similar to the singularity that physicists believe gave rise to the
big bang.
Long known for their obliterating power,
black holes may also have been a creative force: New evidence suggests that they gave order to the chaotic mess
produced by the
Big Bang.
These two objects — which have the
biggest apparent event horizons of any
black holes that can be viewed from Earth — turn out to be complementary: Sagittarius A * is normally representative of quiet, inactive
black holes, whereas M87 typifies the energetic
black holes that
produce elongated jets of gas and particles.
The idea that neutron stars can
produce x-ray jets as powerful as those created by
black holes is «a pretty
big deal» that challenges some of the current models of the phenomena, says astrophysicist Rob Fender of the University of Southampton in the U.K..
Scientists say that type II supernovae should not
produce black holes much
bigger than about 30 solar masses — and both
black holes were at the high end of that range.
Indeed, GRBs appear to emit
produce even more energy than supernovae or even quasars (which are energetically bright accretion disks and bi-polar jets around supermassive
black holes that are most commonly found in the active nuclei of some distant galaxies and possibly even in the pre-galaxy period after the
Big Bang).
Otherwise unknowable details of some of the universe's most violent events — from neutron star and binary
black hole mergers, to supernova explosions and even the
Big Bang itself — should be revealed by the tell - tale gravitational waves they
produce.