Black Holes

Black Holes It has been proven that black holes are not so invincible; they can

emit radiation, and therefore loose mass (due to E=MC²). Calculations

have confirmed that black hole ought to emit particles and radiation

as if it were a hot body with a temperature that depends only on the

black hole’s mass, they are inversely proportional: the larger the

mass of a black hole the lower it’s temperature.

The answer is that the particles do not come from within the black

hole, but from the “empty” space just outside the black hole’s event

horizon.

This understood in the following way: what is thought as “empty” space

cannot be completely empty, because this would mean that all the

fields, such as the gravitational and electromagnetic fields would

have to be exactly zero. However, due to the uncertainty principle

(which states that the more accurately you measure the position of a

particle in space, the less accurately you could measure its velocity)

the field in “empty” space cannot be fixed at exactly zero, because it

would then have a precise velocity (zero). Therefore there must be a

certain minimum amount of uncertainty in the value of the field.

Due to scientific theory every matter particle has an opposite match;

or if you like an antiparticle. If these particles are seen as matter

particles, then one of the partners of the particle/antiparticle pair

will have positive energy, and the other negative energy. The one with

negative energy will be condemned to be a short-lived virtual particle