<p>This study explores the historical concept of ether within the framework of modern theoretical physics by deriving Maxwell’s equations that incorporate magnetic monopoles from the Navier-Cauchy equation with stress couples. We demonstrate that the elastomechanical interpretation of electromagnetism not only revitalizes the ether concept but also provides a coherent theoretical foundation for understanding electromagnetic phenomena. This interpretation reveals a significant link between mechanical properties and electromagnetic behaviors, for example, the charge of fundamental particles, such as electrons, is inherently connected to rotational dynamics within the elastomechanical medium. Additionally, we introduce the magnetic monopole as a critical component of our framework, showing how it is associated with mass flux and volume changes in the medium, thus contributing to the dynamics of particle generation. Our findings highlight the profound interplay between elastodynamics, classical electromagnetism, and contemporary concepts in physics, paving the way for new epistemological perspectives. This research underscores the potential for integrating diverse physical theories to foster innovative developments in theoretical physics, challenging traditional views and inviting further exploration of the fundamental forces that govern the universe.</p>

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Derivation of Maxwell’s Equations with Magnetic Monopole from Navier-Cauchy Equation with Stress Couple: "A Modern Reinterpretation of the Ether"

  • Nicola De Giuseppe

摘要

This study explores the historical concept of ether within the framework of modern theoretical physics by deriving Maxwell’s equations that incorporate magnetic monopoles from the Navier-Cauchy equation with stress couples. We demonstrate that the elastomechanical interpretation of electromagnetism not only revitalizes the ether concept but also provides a coherent theoretical foundation for understanding electromagnetic phenomena. This interpretation reveals a significant link between mechanical properties and electromagnetic behaviors, for example, the charge of fundamental particles, such as electrons, is inherently connected to rotational dynamics within the elastomechanical medium. Additionally, we introduce the magnetic monopole as a critical component of our framework, showing how it is associated with mass flux and volume changes in the medium, thus contributing to the dynamics of particle generation. Our findings highlight the profound interplay between elastodynamics, classical electromagnetism, and contemporary concepts in physics, paving the way for new epistemological perspectives. This research underscores the potential for integrating diverse physical theories to foster innovative developments in theoretical physics, challenging traditional views and inviting further exploration of the fundamental forces that govern the universe.