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Annales Fondation Louis de Broglie, Volume 30, no 1, 2005 85

Mikhailov’s Experiments :

Weber vs. Einstein or Weber plus Einstein ?

J

ORGE

G

UALA

-V

ALVERDE

Subsecretaria de Energia, MHOySP. Neuquen Government, 8300 Neuquen, Argentine

V.F. Mikhailov measured changes in the electron’s inertial mass when it is located inside a uniformly charged spherical shell [1]. The above mass, calculated by Assis [2] with the aid of Weber’s force [3], reads m = mo(1- qU/3c2) for a charge q placed in a region in which Coulomb’s potential is worth U.

In page 161 of Reference1 Mikhailov wrote:

“So, if q and U have same (opposite) signs there is a decrease (increase) of the particle`s effective mass”. Then, for q = -e and U = Const.(Q/R) > 0, we get m = mo(1 + eU/3moc2) > mo.

We remember now that also Einstein’s mass-energy equivalence, dmE = Energy/c2, allows us to predict an electron mass dependence on an electro- static potential, being of the same order of magnitude, but opposite in sign.

As a matter of fact, we have described the electronic mass defect which takes place in an atomic electron [4].

Let us consider an electron inside a (radius R, charge Q) positively charged spherical shell. Electrostatic potential energy reads -eU < 0 (we need to do work on the electron in order to bring it to infinite), being U = Const.(Q/R) > 0 the Coulomb’s potential and e = +1,6x10-19 C. Einstein’s effect reads dmE = -eU/c2 < 0, i.e. a mass-defect takes place, and we get m

= mo + dmE = mo(1 –eU/moc2) < mo, for the electron’s inertial mass.

According to Einstein’s mass-energy equivalence we add:

“So, if q and U have the same (opposite) signs there is an increase (de- crease) of the particle’s effective mass. If both Weber and Einstein are right, then the whole measurable effect would be m = mo + dmW + dmE

!

mo(1- 2eV/3c2).

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86 J. Guala-Valverde

References

[1] V.F. Mikhailov, Ann. Fond. Louis de Broglie, 24, 161 (1999) ; 26, 633 (2001) [2] A.K.T. Assis, Journ.oOf the Phys. Soc. of Japan, 62, 1418 (1993).

[3] A.K.T.. Assis, “Weber Electrodynamics”, Kluwer, Dordrecht (1994).

[4] J. Guala-Valverde, Physica Scripta, 43, 551 (1991).

(Manuscrit reçu le 21 septembre 2003)

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