Does the Standard Model of Particle Physics Suffer from a Mass Problem?

  • Hans-Peter Morsch HOFF
Keywords: Standard Model of particle physics vs. fundamental description, masses of simple mesons, vector and Higgs-bosons.

Abstract

In the Standard Model of particle physics massive fermions (quarks and leptons) and bosons (W^+-, Z^o, H^o) are needed. However, the logic of nature requires that the universe emerged out of the vacuum and therefore all elementary particles should be massless. To test, whether this requirement is consistent with the mass structure of the Standard Model, corresponding mesonic states as well as the systems Z^o(91.2~GeV), W^+-(80.4~GeV) and 0^+(126~GeV) have been investigated in a unified theory of all forces including gravity, in which all needed parameters are constrained by basic boundary conditions.

The results show indeed that for these states all basic boundary conditions are fulfilled. Thus, the quarks and massive bosons of the Standard Model should be interpreted as effective particles composed of massless elementary fermions and bosons, in full agreement with the structure of the universe.

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Author Biography

Hans-Peter Morsch, HOFF

HOFF, Brockm ̈ullerstr. 11, D-52428 J ̈ulich, Germany

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Published
2019-08-30
How to Cite
Morsch, H.-P. (2019). Does the Standard Model of Particle Physics Suffer from a Mass Problem?. To Physics Journal, 3, 114-121. Retrieved from http://purkh.com/index.php/tophy/article/view/451
Section
Research Articles