Physics Journal News Letter
This
on-line physics journal
news letter will begin in May of 2005. It
is
devoted to the
latest in high-energy, nuclear and particle physics research data and
related fields that will include important developments from fusion,
plasma and condensed matter research. The news letter will also include
the newest engineering developments, experimental techniques,
laboratory apparatus and elementary particle detection schemes and it
will include discussions on the potential of data application along
with commentary from the author when necessary. The theoretical
implications of this new research will be considered in a straight
forward manner, including any results that may have a negative impact
upon current views. The material for the articles will come directly
from laboratories such as CERN, Lawrence Livermore, Berkeley, SLAC,
Brookhaven,
DESY and various University research facilities, and include sources
such as published papers from other physics journals, such as Physics
Review C and IOP Physics G and information from APS and other
physics conferences, presentations and other related sources.
Articles
May
2005
|
June
2005 |
July
2005 |
August
2005 |
September
2005 |
October
2005 |
| November
2005 |
December
2005 |
January
2006
|
February
2006 |
March
2006 |
April
2006 |
| May
2006 |
June
2006 |
July
2006 |
August
2006 |
September
2006 |
October
2006 |
| November
2006 |
December
2006 |
January
2007
|
February
2007 |
March
2007 |
April
2007 |
Please
note, the lead articles will be published on or about the first of each
month, however, additional articles may be added to the publication
throughout the month, as they are completed. Therefore, it would be
advisable to check for new articles on a regular basis. For reference
purposes, back issues will remain on-line for up to 24 months.
The Standard Model of Particle Physics,
the established and most revered of all modern nuclear models is,
unfortunately, riddled with so many holes that it cannot be plugged. An
unprecedented number of recent discoveries of the last seven years,
derived from experiment and observation, have decimated these prominent
nuclear models, Standard Model, Quantum Electrodynamics (QED), Quantum
Chromodynamics (QCD), Quantum Field Theory, Electroweak, and others.
Listed below are just a
few of the
more significant discoveries that have punched so many holes into the
current nuclear models that further modification of those models seems
counterproductive. Each item listed compounds the severity of the
contradictions:
1. Neutrino and
Antineutrino
particles have mass! This knowledge contradicts all current nuclear and
particle models!
Although
some scientists, including this
author, have known for many years that neutrino particles have mass
and that every experiment involving neutrinos demonstrated the
obvious existence of this mass, most particle physicists refused to see
or
accept the
evidence until very recently. Finally, by the end of 2004 the evidence
was absolutely conclusive and scientists could no longer disregard
neutrino mass. The reason the existence of neutrino mass was
sidestepped for more than fifty years, after it was first detected and
seventy five years after it was proposed, was
because all of the most
prestigious mainstream theories require the existence of a '0' mass
neutrino that must also propagate at v = c. After all, if the neutrino
has mass,
then how could it also
have a velocity of c, where c is the speed of light? Any particle
with mass that also has a velocity of c, would violate the laws
and theoretical basis of the models above including Relativity, and
this would invalidate their postulates and should have serious adverse
consequences for all current theories and models. This means that
either the theories
were wrong along with 80 years of outlandish concepts that were based
upon them or the concept that "only a '0' mass particle could travel
at
the speed of light", because, according to Relativity, if it has mass,
then an infinite amount of
energy would be required to propel that particle at c. Since an
infinite amount of energy does not exist, then no particle with mass
could propagate at v = c. Originally, a
'0' mass neutrino was proposed by Pauli in 1930 to
explain
a mass deficit that was observed in most nuclear experiments and
natural events; it was necessary to address the Conservation of Mass, Charge, Rest Mass,
Energy and Momentum, which,
it was thought, the neutrino would satisfy through its proposed
properties of '0' mass, '0' electric charge, and velocity of v = c.
Previously,
however, the '0' mass particle concept was
applied to the particle of light, the photon and for stated reasons, it
was applied to the subject particle. The
'0' mass neutrino became mandatory to justify the principles of nuclear
models that
followed and extended to all related subject theories that emerged
after the 1930's, including those that were developed before, and the
requirement carried forward
and remained a key principal in all modern theories. In addition, if
the neutrino had mass than it could not account for the mass deficit of
those countless nuclear interactions; nearly every nuclear interaction,
according
to the models above, results in
a mass deficit, where, as in so many interactions, the product particle
or nucleus weights less than sum of incident particles or nuclei as
compared to the original free-state mass of the nucleons.
Keep in mind that QCD and the Standard Model contain an insurmountable
theoretical restriction, one that prescribes an inflexible substructure
for protons
or neutrons consisting of three
indivisible quarks. If the three particles that make-up a proton
are fundamental and therefore indivisible, then how could there be a change in mass (Dm)
for each proton and neutron involved? With this
restriction, there is no way to account for a resultant mass deficit
after an interaction or a nuclear mass defect (change in rest mass)
that take place during a fusion or fission event. All such events
require a massless neutrino to carry away this
loss of mass, otherwise, the predicted experimental results and
calculations will have
irreconcilable errors, which nevertheless exist, but are ignored or
allowed to be ignored through the use of fuzzy mathematics.
This author predicted the minimum neutrino mass back in
1998 in several writings, and again in 1999 with the publication of
"The Order of the Forces", which describes the Geatron Nuclear
Model.