- #1
hcl
- 18
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Hello,
Does anyone have informations about a relativistic origin of the charge-to-mass ratio ?
Does anyone have informations about a relativistic origin of the charge-to-mass ratio ?
hcl said:Sure but this thread is closed. I did not understand why.
PeterDonis said:Do you think there should be such a relationship? Why or why not? Please give references.
hcl said:Yes, this relationship is very simple :
fH = 4pi (c^2/v^2) e/m
where fH is the angular frequency of the electron in the hydrogen atom, c is the speed of light, v is the rotation speed of the electron in the hydrogen atom (multiplied by 2).
PeterDonis said:What do you mean by "angular frequency"? What measurement does this correspond to?
PeterDonis said:What do you mean by "rotation speed"? You do understand that the electron is not a little billiard ball orbiting the nucleus, right?
PeterDonis said:Which has been known since the early 1920s to be an inaccurate model.
Relativistic electric charge refers to the concept of electric charge as described by the theory of relativity. It takes into account the effects of time and space on electric charge and how it behaves in different frames of reference.
Classical electric charge follows the laws of classical mechanics, while relativistic electric charge takes into account the effects of special relativity, such as time dilation and length contraction, on electric charge.
Relativistic electric charge is significant because it provides a more accurate and comprehensive understanding of electric charge in the universe. It allows for a more precise description of electromagnetic phenomena at high speeds and in strong gravitational fields.
Relativistic electric charge is a direct consequence of the theory of relativity. The theory of relativity explains how time and space are relative and how this affects the behavior of objects, including electric charge.
Yes, relativistic electric charge can be observed and measured through various experiments and observations, such as the deflection of charged particles in a magnetic field or the behavior of electromagnetic waves in different frames of reference.