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The following points cast doubt on the validity of the Higgs boson
identification of the recently found 125 GeV particle.
-
A theoretical proof of inherent contradictions that
exist in the Higgs boson mathematical structure has been published
here
.
A generally accepted physical principle states that an acceptable physical
theory should have a self-consistent mathematical structure. Therefore,
it is concluded that the Higgs boson does not exist. (BTW. as of
May 23, 2014, many people have seen the above mentioned article but
no refutation of the proof described therein has been
published appropriately.)
-
A not very small number of CERN's LHC experts have
used the Standard Model for a calculation of the Higgs boson
width (see pp. 142-146
here
).
It turns out that the experimental LHC width is about 1000 times
greater than the theoretical value predicted for a 125 GeV Higgs boson.
A hindsight attempt
to explain this huge discrepancy as a property of the LHC machine
is certainly not as good as a successful prediction of such a property.
Furthermore, this argument
says that the width prediction of the LHC people is analogous to
a proposal to use a thermometer that measures temperature with an error
of 1 0C as an element of
a very important experiment that requires
an accuracy of 0.001 0C. It is very hard
to believe that the above mentioned CERN
team of experts can really do such an unscientific work.
-
The W, Z and the top quark are heavy particles whose mass belongs
to the region of the new 125 GeV particle. The experimental width
of each of these particles is not less than 2 GeV (
see here
).
According to the Standard Model the W,Z are elementary particles that
carry the weak interactions; the top quark is an elementary particle
that participates in the strong, electromagnetic, weak and
gravitational interactions; the Higgs boson explains why some
fundamental particles have mass (see its Wikipedia item). Thus,
according to the Standard Model, the four particles mentioned herein play three
completely different physical tasks.
Therefore, one wonders why all these inherently different heavy particles
have such a similar width.
Remark: The ground state of the positronium as well as the pions
are pairs of spin-1/2 particle-antiparticle
bound state where jπ = 0- . These states
are determined by the parity conserving
electromagnetic and strong interactions, respectively.
The even parity found for the 125 GeV particle does not exclude
the possibility that it is a top-antitop bound state. Indeed, all the
heavy particles: W, Z and the top quark decay under weak interactions and
their width is quite large. it means that for the heavy particles,
where momentum is also large, distances are quite small and the
weak interactions become very big. The parity nonconservation
attribute of these interactions indicates that 0+
is a reasonable ground state of a top-antitop bound pair.
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