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Dimensional Dependence of Electrostatic Equilibrium in Conductors: A Critical Analysis

DOI: 10.4236/jemaa.2025.176006, PP. 93-100

Keywords: n-Dimensional Conductors, Charge Distribution, Potential Energy, Hyperspherical Coordinates, Gauss’s Law, Electrostatic Equilibrium, Dimensional Analysis

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Abstract:

The study examines the electrostatic charge distribution in n-dimensional conductors. By generalizing Gauss’s law and using hyperspherical coordinates, the ratio of electrostatic potential energies between a uniform distribution in the volume (WΘ) and a uniform distribution on the surface (WO) is calculated. For n ≤ 2, the two distributions are energetically equivalent, whereas for n > 2, the surface distribution is more favorable, with a ratio W Θ / W O =λ( n )= 2n/ ( n+2 ) . The main conclusion is that the concentration of charge on the surface constitutes an energetically favorable state only in spaces with more than two dimensions, revealing a fundamental difference in the behavior of electrostatic systems depending on spatial dimensionality. This study, providing new theoretical insight into the dimensional dependence of electrostatic equilibrium, could have applications in higher-dimensional theories.

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