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March 28, 20260 citationsOpen Access

The D Potential - Unification of Electric and Magnetic Fields in the Steady State

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AOAkintunde Abiodun Olawale

Key Points

  • To complete the steady-state description of electromagnetism using a unified potential framework.
  • Clarified the nature of the electric field tied to quantized charges.
  • Derived steady-state curl equations from Gauss's law.
  • Introduced the vector potential related to scalar field dynamics.
  • Applied three natural constraints for Helmholtz decomposition.
  • Established a complete steady-state structure of electromagnetism with the potential D.
  • Demonstrated the conventional Maxwell equations are effective descriptions, not fundamental laws.
  • Set the groundwork for future exploration of time-dependent electromagnetism.

Abstract

This paper completes the steady-state description of the constructive reformulation of electromagnetism initiated in Paper I. Building on the experience principle and the propagation model, it clarifies the nature of the electric field as a real entity attached to each quantized charge, moving with it instantaneously yet possessing an intrinsic dynamism determined by the constant c. The force on a test charge is absolute and instantaneous, defined in the test charge's own experience, and involves only the perpendicular component of relative motion. For systems of multiple charges stationary relative to one another, the scalar field is shown to obey Gauss's law, leading to the steady-state curl equations Eₘ = c J and B = J. The vector potential D is introduced with = - D. Under three natural constraints—irrotationality, alignment with the propagation direction, and spherical symmetry—the Helmholtz decomposition E = - V + G is derived, with V = D c and G = D v_. From G the magnetic potential A and field B are obtained. Gauge invariance reduces to a constant shift along c, leaving all physical quantities invariant. This paper establishes the complete steady-state structure of electromagnetism from a single potential D, demonstrating that the conventional Maxwell equations are effective descriptions rather than fundamental laws. It sets the stage for Paper III, where time dependence and wave equations emerge from changing relative motion.

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Cite This Study

Akintunde Abiodun Olawale (2026) studied this question.

synapsesocial.com/papers/69c771348bbfbc51511e1106https://doi.org/10.5281/zenodo.19234617
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Also Consider

Synapse has enriched 5 closely related papers on similar clinical questions. Consider them for comparative context:

  1. 1The Field Potential W: A Constructive Foundation for Classical Electromagnetism2026
  2. 2Dynamics and the Emergence of Maxwell's Equations2026
  3. 3A Unified Maxwell Equation Derived from Cognitional Mechanics: A Practical Foundation for Engineering Electromagnetics2026
  4. 4Paper I: The Experience Principle and the Propagation Model—A Constructive Reformulation of Electromagnetic Force2026
  5. 5From UD Theory to Electromagnetism: The Vector Projection and the Rigorous Emergence of Maxwell's Equations2026