The Controversy on the Inverse-Square Law for Coulomb's Interactions

Guglinski, Wladimir

doi:10.35840/2631-5017/2513

“…However, the complete F= KQq/d X Coulomb's Law inside atomic nuclei was proposed by the author earlier than 2019. Figure 9 shows the item titled "Solution for the Unacceptable Gamow's Paradox", which belongs to [5].…”

Section: Vmentioning

confidence: 99%

Experiment to detect the electric charge of quantum vacuum fermions

Guglinski

2023

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In 2013 EPJ D published a paper [1] in which is proposed an experiment that, if it confirms the prediction exposed in the paper, ultimately means a confirmation of the existence of fermions that make up the quantum vacuum. Here is shown a calculation of the value of the electric charge of these fermions. The value achieved for the charge e0 is 5.06532×10− 45 C. From this value of e0, together with the fundamental constants KO, c, ħ, α = 1/137, and the Bohr’s radius, the electric charge of the proton is calculated, achieving the value e = 1.6026×10− 19 C, which is very close to the experimental e = 1.60218×10− 19 C. The calculations from which those results were obtained are exposed here, and in the Conclusion at the end of the paper is shown that the result of such calculations cannot be mere coincidence. From different possibilities to modify the vacuum, if from an experiment be obtained a value close to 5×10− 45 C, the existence of such fermions will be definitively confirmed.

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Experiment to detect the electric charge of quantum vacuum fermions

Guglinski

2023

Preprint

0

View full text Add to dashboard Cite

In 2013 EPJ D published a paper [1] in which is proposed an experiment that, if it confirms the prediction exposed in the paper, ultimately means a confirmation of the existence of fermions that make up the quantum vacuum. Here is shown a calculation of the value of the electric charge of these fermions. The value achieved for the charge e0 is 5.06532×10− 45 C. From this value of e0, together with the fundamental constants KO, c, ħ, α = 1/137, and the Bohr’s radius, the electric charge of the proton is calculated, achieving the value e = 1.6026×10− 19 C, which is very close to the experimental e = 1.60218×10− 19 C. The calculations from which those results were obtained are exposed here, and in the Conclusion at the end of the paper is shown that the result of such calculations cannot be mere coincidence. From different possibilities to modify the vacuum, if from an experiment be obtained a value close to 5×10− 45 C, the existence of such fermions will be definitively confirmed.

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The gravitoelectrostatic nuclear energy

Napolitano¹

2020

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In the present work I discuss whether the gravito-electric self-energy is a valid approach to study the nuclear structure and the nuclear forces.In particular I investigate the validity of the strong equivalence principle (SEP) in the atomic nucleus, by assuming that in the nucleus the gravito-electric force (F_ge= GKMm/R^2 ) to be operating and that the potential “self-energy” related to this force to be inversely proportional to the circumference (2πR), with R equal to the nuclear radius observed in the electron scattering experiments.The new approach here proposed offers an occasion for discussing about the physics and chemistry foundations, in particular about the nature of the nucleus of the atom, which perhaps should have to be reconsidered in deterministic terms, rather than probabilistic ones.

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The Controversy on the Inverse-Square Law for Coulomb's Interactions

Cited by 3 publications

References 10 publications

Experiment to detect the electric charge of quantum vacuum fermions

Experiment to detect the electric charge of quantum vacuum fermions

Experiment to detect the electric charge of quantum vacuum fermions

The gravitoelectrostatic nuclear energy

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