Authors: Malcolm H. Mac Gregor
Experimentally, the sum of the W and Z gauge boson masses is equal to the top quark t mass, to an accuracy of better than 1%. This unexpected mass relationship has no Standard Model explanation. It can be related to a precision mass equality in Fermilab and CERN proton-antiproton collision experiments, and to an empirical mass relation between the top-quark and the electron that ties together the lightest and heaviest particle states to 0.1% accuracy. These results, which do not appear to be accidental, can be used as a guide in classifying high-energy particle states. Since these relationships are between different types of particle states, they logically involve the particle energies E = mc^2 rather than their masses, since energies represent a universal property that is essentially independent of particle types and quantum numbers. Particle energies E are proportional to particle inertial masses m. The Standard Model quark energies correspond to constituent-quark masses. The experimental mass/energy relationships mentioned here can be fitted into a comprehensive particle generation formalism based on factor-of-137 kinetic-energy-to-particle-energy transformations in related boson, fermion and gauge boson energy production channels.
Comments: 15 pages, including 6 displays of experimental data systematics
[v1] 2012-03-15 17:23:46
Unique-IP document downloads: 121 times
Add your own feedback and questions here:
You are equally welcome to be positive or negative about any paper but please be polite. If you are being critical you must mention at least one specific error, otherwise your comment will be deleted as unhelpful.