Book: ''' Stephen Hawking. A life in science ''

''Together with Brandon Carter and Jim Bardeen, Hawking wrote a paper,

published in Communications in Mathematical Physics , pointing out . . .

the team commented, '' In fact the effective temperature of a black hole

is absolute zero . . . . No radiation could be emitted from the hole.''

/ page 156./

But later (!) , . . using concepts of entropy and Heisenberg uncertainty

principle and quantum fluctuations (!) Hawking changed his mind

and wrote that black holes can radiate.

/ Book: ''' Stephen Hawking. A life in science '' by Michael White and John Gribbin/

#

So, in the beginning ( according to calculations) the ''black hole''

had absolute zero temperature (like the Cosmic Vacuum: T=0K) . . .

but . . . thanks to entropy, Heisenberg uncertainty principle and

quantum fluctuations the absolute zero temperature was changed.

Conclusion:

Cosmic Vacuum and black holes are one and the same system.

Black holes are parts of the infinite Cosmic Vacuum.

''Together with Brandon Carter and Jim Bardeen, Hawking wrote a paper,

published in Communications in Mathematical Physics , pointing out . . .

the team commented, '' In fact the effective temperature of a black hole

is absolute zero . . . . No radiation could be emitted from the hole.''

/ page 156./

But later (!) , . . using concepts of entropy and Heisenberg uncertainty

principle and quantum fluctuations (!) Hawking changed his mind

and wrote that black holes can radiate.

/ Book: ''' Stephen Hawking. A life in science '' by Michael White and John Gribbin/

#

So, in the beginning ( according to calculations) the ''black hole''

had absolute zero temperature (like the Cosmic Vacuum: T=0K) . . .

but . . . thanks to entropy, Heisenberg uncertainty principle and

quantum fluctuations the absolute zero temperature was changed.

Conclusion:

Cosmic Vacuum and black holes are one and the same system.

Black holes are parts of the infinite Cosmic Vacuum.