Thermodynamic Operations and Entropy Considerations for a Ring-of-Charge Oscillator System

A ring of classical charge with a charged point particle oscillating within is first analyzed. The charged particle interacts with classical electromagnetic thermal radiation, which causes the particle to fluctuate, while the ring of charge imparts a resonant frequency to the particle's motion. Oscillations in one direction within the plane of the ring are analyzed. The radius of the ring is slowly altered. The accompanying change in the particle's average internal energy and the average work done in changing the radius are calculated. This leads to a derivation of the classical electromagnetic zero-point radiation spectrum. Next, the second law of thermodynamics is applied to the entropy to enable a more general derivation of the Wien displacement law. With this derivation, zero-point radiation can be included in the Wien displacement law. Finally the definition of the thermodynamic temperature is emphasized, and methods for performing the needed calculations for the temperature ratio are discussed.

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Publication Details

Journal
Entropy
Published
2025-12-24
DOI
https://doi.org/10.3390/e28010019
Primary Topic
Quantum and Classical Electrodynamics
Type
article
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article

Thermodynamic Operations and Entropy Considerations for a Ring-of-Charge Oscillator System

Daniel C. Cole
Entropy
Quantum and Classical Electrodynamics
article

Thermodynamic Operations and Entropy Considerations for a Ring-of-Charge Oscillator System

Daniel C. Cole
article en

Abstract

A ring of classical charge with a charged point particle oscillating within is first analyzed. The charged particle interacts with classical electromagnetic thermal radiation, which causes the particle to fluctuate, while the ring of charge imparts a resonant frequency to the particle's motion. Oscillations in one direction within the plane of the ring are analyzed. The radius of the ring is slowly altered. The accompanying change in the particle's average internal energy and the average work done in changing the radius are calculated. This leads to a derivation of the classical electromagnetic zero-point radiation spectrum. Next, the second law of thermodynamics is applied to the entropy to enable a more general derivation of the Wien displacement law. With this derivation, zero-point radiation can be included in the Wien displacement law. Finally the definition of the thermodynamic temperature is emphasized, and methods for performing the needed calculations for the temperature ratio are discussed.

EntropyVol. 28(1)
Boston University (US)
Openalex Percentile: Top 32%
Quantum and Classical Electrodynamics
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Thermodynamic Operations and Entropy Considerations for a Ring-of-Charge Oscillator System — Daniel C. Cole · Entropy (2025) | TGRS Research Map | TGRS