On Particles Mass and the Universons Hypothesis

2014

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In two previous papers, we showed that that the observed elementary particles masses spectrum agrees with a single resonance equation. Using those results we show that the resonance numbers address three distinct resonance schemes-one for each symmetry U(1) and SU(3), and one for massive bosons; we then deduce, from the equation parameters, a unique fundamental field "below" the standard model fields and forces, which we interpret as electric and magnetic poles and magnetic currents.

Section: Methodsmentioning

confidence: 58%

Below the Standard Model?

2014

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“…Hence the main interest of this paper is in the very existence of the field below, firstly because it could lead to applications that cannot be imagined in the SM theoretical context -but not only. The Feynman-Wheeler absorber theory considers exchanges of energy, and the equation (1) was initially found considering quantized momentum exchanges (Consiglio , 2012), so called Universons (Poher & Marquet, 2012) which is close to the same idea.…”

Section: Discussionmentioning

confidence: 99%

On the Field Below SM, Analysis and Predictions

2014

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We previously showed that the elementary particles mass spectrum is not random at all and probably originates in resonances of a single field below the known forces and fields. Here we first improve our demonstration leading to a single field; we show how resonances are compatible with the standard model symmetries and give coherent mass equation parameters. On this basis, we build a toy model of the field below which is consistent with those parameters and with the resonance numbers of quarks and massive bosons. It enables computing the W ± , Z 0 , and H 0 boson pole masses with high precision and the widths also come naturally. The resulting W ± mass is in close agreement with experimental data but it disagrees with the SM prediction. An important consequence is that nothing new should appear in the next LHC run because geometrical constraints show that there is probably nothing else to find. Finally, the fundamental resonance agrees with the Dirac condition; it explains the other coefficients of the theory (α and α S ) and shows the nature of the field.

“…All equations in this section are deduced in previous publication (Consiglio, 2012), please refer to it for details and demonstrations; in particular for the mass quantization equation (A3).…”

Section: Formulasmentioning

confidence: 99%

“…-Particles action variation in (A1) leads to de Broglie wave, Schrodinger equation, and uncertainty in their usual form (see Consiglio, 2012). But these three pillars of quantum theories result from classical physics applied to our supposed sub-quantum Universons field.…”

Section: Modelsmentioning

confidence: 99%

See 1 more Smart Citation

Relativity, Magnetic Charge, and Weak Bosons Mass

2012

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This paper continues our analysis of the Universons hypothesis and its compatibility with existing knowledge.We analyze massive bosons mass and resonances and find harmonic numbers consistent with existing mass measurements or estimates, including the possible Higgs signal detected at CERN. Using quarks and massive bosons, resonances imply strong symmetry breaking for the first quarks generation and the W boson, but the same numbers possibly relate to a hidden harmony.We find two distinct logics to explain Mikhaïlov magnetic charge. The first is based on our analysis of charge/energy ratio and inertia, and the second uses particles resonances.The constraints imposed by inertia to the properties of absorption imply that pseudo-quantization of magnetic charges is consistent with Special Relativity if the flux propagates at the speed of light or much faster. In both cases, the consequence is the existence of an aether drift effect when measuring one-way light propagation, in agreement with existing positive confirmations, but no drift is measurable using the classical Michelson-Morley experiment.We discuss the interest the theory and compare briefly with current advanced concepts.