
Originally Posted by
Steve Miller
Hello, I'm reading this article about the malfunctioning CERN particle collider. I understand, with the help of colliding particles scientist do simulate the origin of the universe, or better, the conditions found shortly after the big bang.
I conclude they assume the collision (some sort of particle collision ) lead to the originating universe. Do they know something we don't? How comes they assume particles to be existent well before the actual universe?
Doesn't such an assumption very well disprove the Big Bang, however?
And, if it does, how could CERN create the - condition shortly after - of what was disproved?
Might be reading this post will help them to fix the d*** thing.
Steve
At LHC the extreme conditions will be created. The pressures and temperatures inside stars are much less. These extreme conditions could be compared only with the conditions at the collapsing objects and with the conditions at the “Beginning”, described by the Big Bang Hypothesis (BBH).
I don’t want to speak about BBH, because I think, it is completely erroneous, religious dogma.
It is known that collapsing objects are the stars transforming into black holes.
The process of gravitational collapse is very contradictive.
But is the gravitational collapse the only possible?
It was investigated that the magnetic collapse is also possible!
Magnetic collapse leads to the creation of magnetic hole.
Magnetic hole is much stronger than black (gravitational) hole.
Astronomical observations show that in fact we see magnetic holes and collapses, but not black, the gravitational holes and collapses.
Magnetic holes have axial symmetry.
Black holes must have spherical symmetry.
Look at the remnants of SN 1987A.

Our Solar System will look the same as SN 1987A, soon after the launch of LHC with great probability.
According to my
computation a large quantity of microscopic magnetic holes can be created at the LHC.
Thusly the launch of collider can launch the magnetic collapse of ordinary matter on growing fusing magnetic holes.
The minimal possible mass of magnetic hole in energy units is about 0.3 TeV.
Collisions with energies about 1 TeV were already made at Tevatron collider, but those were the proton-antiproton collision, leading to annihilation.
Collisions of cosmic particles with atmospheric particles have even more energies. But magnetic holes, made in these collisions, have TeV energies relatively our atmosphere. Because of this, the following collisions of magnetic holes with atmospheric particles will lead to evaporation of holes and to the creation of observable particle showers.
Magnetic holes created at the collider can have very small velocities. Such holes will cause the proton decay, accompanied by the rejection of positrons and by the growth of the holes.