In this paper we analyze the classical electromagnetic radiation of an accelerating point charge moving on a straight line trajectory. Depending on the duration of accelerations, rapidity distributions of photons emerge, resembling the ones obtained in the framework of hydrodynamical models by Landau or Bjorken. Detectable differences between our approach and spectra obtained from hydrodynamical models occur at high transverse momenta due to classical wave interference phenomena included in our model
We provide for the first time the exact solution of Maxwell's equations for a massless charged parti...
An electrical circuit is considered a polygon in that it has edges and nodes. The moving (let’s say,...
Maxwell’s equations applied to an accelerating charge lead to the prediction of emitted radiation th...
Rethinking the dynamics of an accelerated charge from classical concepts. From the idea that radiati...
Rethinking the dynamics of an accelerated charge from classical concepts. From the idea that radiati...
Rethinking the dynamics of an accelerated charge from classical concepts. From the idea that radiati...
In (1), the frequency distribution of radiation emitted from an accelerating charge is calculated. I...
Efforts to suggest a classical model for the hydrogen atom are discouraged by a conclusion, based on...
International audienceIn classical electrodynamics the amplitude of the radiation by a charged parti...
Motivated by recent experiments where interference patterns behind a grating are obtained by accumul...
The theory of electrodynamics of radiating charges is reviewed with special emphasis on the role of ...
Motivated by recent experiments where interference patterns behind a grating are obtained by accumul...
The classical Maxwell equations may be used to describe charges which radiate photons if the source ...
Bohmian mechanics, a hydrodynamic formulation of quantum mechanics, relies on the concept of traject...
We revisit the long standing problem of analyzing an inertial electric charge from the point of view...
We provide for the first time the exact solution of Maxwell's equations for a massless charged parti...
An electrical circuit is considered a polygon in that it has edges and nodes. The moving (let’s say,...
Maxwell’s equations applied to an accelerating charge lead to the prediction of emitted radiation th...
Rethinking the dynamics of an accelerated charge from classical concepts. From the idea that radiati...
Rethinking the dynamics of an accelerated charge from classical concepts. From the idea that radiati...
Rethinking the dynamics of an accelerated charge from classical concepts. From the idea that radiati...
In (1), the frequency distribution of radiation emitted from an accelerating charge is calculated. I...
Efforts to suggest a classical model for the hydrogen atom are discouraged by a conclusion, based on...
International audienceIn classical electrodynamics the amplitude of the radiation by a charged parti...
Motivated by recent experiments where interference patterns behind a grating are obtained by accumul...
The theory of electrodynamics of radiating charges is reviewed with special emphasis on the role of ...
Motivated by recent experiments where interference patterns behind a grating are obtained by accumul...
The classical Maxwell equations may be used to describe charges which radiate photons if the source ...
Bohmian mechanics, a hydrodynamic formulation of quantum mechanics, relies on the concept of traject...
We revisit the long standing problem of analyzing an inertial electric charge from the point of view...
We provide for the first time the exact solution of Maxwell's equations for a massless charged parti...
An electrical circuit is considered a polygon in that it has edges and nodes. The moving (let’s say,...
Maxwell’s equations applied to an accelerating charge lead to the prediction of emitted radiation th...