Stephen Hawking did.
That most likely refers to Stephen Hawking.
Black holes and subatomic particles are a subject of interest in the fields of astronomy, astrophysics, and particle physics. Perhaps the most famous to bring to light the notion that black holes could emit particle/antiparticle pairs and thus lose mass through loss of energy would be Professor Stephen Hawking, who proposed that black holes interact with the universe thermodynamically in this way and could potentially evaporate entirely.
Black holes and subatomic particles are a subject of interest in the fields of astronomy, astrophysics, and particle physics. Perhaps the most famous to bring to light the notion that black holes could emit particle/antiparticle pairs and thus lose mass through loss of energy would be Professor Stephen Hawking, who proposed that black holes interact with the universe thermodynamically in this way and could potentially evaporate entirely. This radiation is often known as Hawking radiation.
A white dwarf no longer produces energy through fusion but remains hot from the residual heat of the star it once was. It will radiate that energy away and slowly cool as a result, eventually becoming a black dwarf.
Its temperature increases. It continues to radiate a spectrum of light ("black body") representative of its new higher temperature. At some level of current, we see it as a source of visible light.
Stephen Hawkin
That most likely refers to Stephen Hawking.
They are studied by astrophysicists which is a branch of astronomy dealing especially with the behavior, physical properties, and dynamic processes of celestial objects and phenomena.
Black holes and subatomic particles are a subject of interest in the fields of astronomy, astrophysics, and particle physics. Perhaps the most famous to bring to light the notion that black holes could emit particle/antiparticle pairs and thus lose mass through loss of energy would be Professor Stephen Hawking, who proposed that black holes interact with the universe thermodynamically in this way and could potentially evaporate entirely. This radiation is often referred to as Hawking radiation.
Because black holes are of such density that even light can no escape them, they don't radiate any light and are black.
Prince Edward the Black studied history. He studied at Oxford accompanied by fellow nobleman as his interest. As a well studied historian he explored Spain.
A black body will radiate heat faster than a white body. This is because black surfaces absorb more light and heat energy compared to white surfaces, leading to faster heating and subsequent radiation of that heat energy.
He explained the Laws of Motion which govern movement from subatomic particles to black holes; as well as the Universal Law of Gravitation.He explained the Laws of Motion which govern movement from subatomic particles to black holes; as well as the Universal Law of Gravitation.He explained the Laws of Motion which govern movement from subatomic particles to black holes; as well as the Universal Law of Gravitation.He explained the Laws of Motion which govern movement from subatomic particles to black holes; as well as the Universal Law of Gravitation.
They radiate aways whatever little energy they have to become black dwarfs.
Stephen Hawking
black holes create a strong gravitational pull that pulls everything into it, including light. and because light can't escape it's pull, then the black hole cannot radiate light, thus making it impossible to radiate light. and also, a white dwarf that has completely run out of fuel stops radiating light and becomes a black dwarf. so, black dwarfs do exist. it's simple logic, so the answers not to hard
He studied more about black holes.