scholarly journals Electric charge and magnetic moment of a massive neutrino

2004 ◽  
Vol 69 (7) ◽  
Author(s):  
Maxim Dvornikov ◽  
Alexander Studenikin
Keyword(s):  
Electric Charge ◽  
Magnetic Moment ◽  
Massive Neutrino

Nonlinear Models of Electric Charge and Magnetic Moment

2015 ◽  
Vol 45 (11) ◽  
pp. 1526-1532
Author(s):  
I. Bersons ◽  
R. Veilande
Keyword(s):  
Electric Charge ◽  
Magnetic Moment ◽  
Nonlinear Models

GENERALIZED BELINSKY–RUFFINI GEOMETRY

1991 ◽  
Vol 06 (24) ◽  
pp. 2189-2195
Author(s):  
AMIR LEVINSON ◽  
AHARON DAVIDSON
Keyword(s):  
Electric Charge ◽  
Magnetic Moment ◽  
Extra Dimension ◽  
Space Time ◽  
Einstein Equations ◽  
Axially Symmetric ◽  
Relativistic Limit ◽  
Kaluza Klein

Stationary, axially symmetric solutions of Einstein equations in a free 5-dimensional Kaluza–Klein space-time are derived. The electric charge and magnetic moment are generated by a fictitious boost involving the extra dimension. The associated gyromagnetic factor tends to unity at the ultra-relativistic limit. The solution derived interpolates between the Kerr and the Belinsky–Ruffini solutions.

scholarly journals Period Doubling Phenomenon as the Origin of Electron Properties

2020 ◽  
Author(s):  
Ari Lehto
Keyword(s):  
Electric Charge ◽  
Magnetic Moment ◽  
Degrees Of Freedom ◽  
Periodic Structures ◽  
Planck Scale ◽  
Structure Constant ◽  
Period Doubling ◽  
Fine Structure Constant ◽  
Coulomb Energy ◽  
Rest Energy

It is proposed that the electrons have an intrinsic periodic property, which determines particle’s rest energy, electric charge, and magnetic moment. Numerical analysis shows that the correct periods are generated by a precise period doubling cascade starting at the Planck scale. Periods corresponding to the values of the intrinsic physical properties of the electron and positron belong to a subset of stable periods. The periodic structures of the rest energy and magnetic moment consist of three internal degrees of freedom, whereas the Coulomb energy of the electric charge consists of four. The number of period doublings for the elementary charge determines the value of the fine structure constant alpha.

Interference of the transient radiation fields produced by an electric charge and a magnetic moment

2012 ◽  
Vol 54 (11) ◽  
pp. 1249-1255 ◽  
Author(s):  
A. S. Konkov ◽  
A. P. Potylitsin ◽  
V. A. Serdyutskii
Keyword(s):  
Electric Charge ◽  
Magnetic Moment ◽  
Transient Radiation ◽  
Radiation Fields

scholarly journals A New Solution of the Einstein-Maxwell Equations for a System with Mass, Magnetic Moment, Charge, and Angular momentum

1974 ◽  
Vol 64 ◽  
pp. 192-192
Author(s):  
Louis Witten
Keyword(s):  
Black Hole ◽  
Angular Momentum ◽  
Magnetic Dipole ◽  
Electric Charge ◽  
Magnetic Moment ◽  
Maxwell Equations ◽  
Black Hole Physics ◽  
Red Shift ◽  
Multipole Moments ◽  
Asymptotically Flat

A five parameter solution of the combined Einstein-Maxwell equations is given which describes a source containing mass, electric charge, magnetic dipole, higher multipole moments of all three kinds, and angular momentum. The solution is asymptotically flat and has a singular infinite red shift surface. Possible relevance of the solution to black hole physics is discussed.

The Electron Self-Energy in a Classical Spin Model

1997 ◽  
Vol 11 (05) ◽  
pp. 189-193
Author(s):  
J. Frenkel ◽  
R. B. Santos
Keyword(s):  
Simple Model ◽  
Electric Charge ◽  
Magnetic Moment ◽  
Quantum Electrodynamics ◽  
Spin Model ◽  
G Factor ◽  
Linear Speed ◽  
Classical Spin ◽  
Self Energy ◽  
Spinning Disk

We discuss a simple model where the electron is approximately described by a rapidly spinning disk of radius λ=ℏ/mc, such that the linear speed at its border is c. We assume that the particle's mass is uniformly distributed over the surface of the disk and its electric charge is strongly peaked around the border. It follows that the spin of the particle must be ℏ/2 and its magnetic moment should have a g factor equal to 2. We show that the electromagnetic self-energy of the particle is given by an expression which is similar to the result obtained in quantum electrodynamics.

scholarly journals The effect of a transverse magnetic field on the propagation of light in vacuo

1929 ◽  
Vol 125 (797) ◽  
pp. 345-351 ◽  
Keyword(s):  
Magnetic Field ◽  
Electric Charge ◽  
Magnetic Moment ◽  
Electronic Charge ◽  
Uniform Field ◽  
Screen Effect ◽  
Electric Moment ◽  
Particle Properties ◽  
Physical Effects ◽  
Electro Magnetic

In modern physics there have developed two complementary—and apparently mutually contradictory—modes of description of radiation processes and of the motion of molecules, atoms, electrons and protons. How far can the parallelism in description of photons (light quanta) and members of the second group of entities be carried ? It is now well known that the physical effects by which an entity is recognised are, in all cases, atomic and individual, e. g ., photoelectric and Compton effects, Scintillation on a fluorescent screen, effect on a photographic plate. Such effects are quite naturally correlated with the concept of a moving particle with energy and momentum. On the other hand, the motion of these particles can only be completely described by the wave method. Except in the case of very long wireless waves, the waves are never observed directly as waves with periodic physical effects in space and time, and even in the case of the exception it seem probable that the periodicity observed is only a large scale phenomenon (for comparatively large numbers of particles). The development of the analogy between photons and entities of the second class (atoms, electrons, etc.) has already reached the stage where it is possible to give a wave description of the motion of the particles in all cases and to assign to the particles an energy-momentum four-vector within the limits of Heisenberg's principle. There remains, however, a fundamental distinction in current theory. All the entities in the second class have electro-magnetic particle properties while none have been assigned to the photon. Electrons, ions, and protons have electric charge which is quantised in integral multiples of the electronic charge ± e . Atoms possess the electromagnetic particle properties, magnetic moment and possibly electric moment, while molecules have magnetic and electric moments and mechanical moments of inertia. Since the photon is assumed to be electromagnetic in origin, and can produce electromagnetic effects, it is necessary to assign to it some electro-magnetic character. The simplest particle properties which one can postulate are those of electric moment and magnetic moment; free electric charge is excluded by the fact that light is not deflected in a uniform electric or magnetic field. The present investigation was carried out with the object of detecting, if possible, the existence of the magnetic moment of a photon. The Stern-Gerlach method of the non-uniform field involving the deflection of particles moving with velocity of light, presents obvious difficulties. The method actually adopted depends for its sensitiveness on the interference properties of light, and the principle was the following. Light was passed through a Fabry-Perot étalon placed in a strong magnetic field which was perpendicular to the direction of propagation of the light. A particle with a magnetic moment μ parallel or antiparallel to the field H, would undergo a change in energy ΔE = ± μH on entering the field and in accordance with the principles of the quantum theory would experience a change in frequency Δ v = ±μH/ h . This would involve an effective change in wave-length Δλ = ±μHλ 2 / hc and a change in the interference pattern formed by the interferometer of the type observed in the normal Zeeman effect.

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