On the dynamic nature of charge quantization
Dennis Crossley

TL;DR
This paper explores the fundamental differences in how objects accelerate under gravity versus electric forces, highlighting the unique inverse mass dependence of charged particles' acceleration.
Contribution
It provides a new perspective on charge quantization by analyzing the inverse relationship between mass and acceleration in electric fields.
Findings
Charged particles accelerate inversely proportional to their mass.
Electric force behavior differs fundamentally from gravitational acceleration.
Insights into the significance of charge quantization.
Abstract
It is commonly observed that objects in a gravitational field experience a rate of acceleration that is independent of their mass and that, as a result, all massive objects with the same initial conditions follow the same trajectory. It is not generally recognized, however, that charged particles in an electric field experience an acceleration which is \emph{inversely proportional} to their mass. This dynamical behavior is an interesting clue to the fundamental nature of the electric force, equally as important as the more familiar behavior of falling bodies, and seems to be the true significance of the observed fact that different charged particles have the same magnitude of charge .
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Taxonomy
TopicsSolar and Space Plasma Dynamics · Experimental and Theoretical Physics Studies · Relativity and Gravitational Theory
