JMP0X1B Research

Working paper / June 6, 2026

Boundary-Flux Electromagnetism on Embedded Four-Manifolds and Null Observables for Capacitor Residuals

A linearized boundary-flux branch of the five-dimensional projection program, built to turn capacitor residual searches into publishable null observables.

01 / Abstract

Abstract

One branch of five-dimensional projection electromagnetism treats observed four-dimensional electrodynamics as the pullback of a higher-dimensional field to an embedded hypersurface. This paper develops the linearized boundary-flux version of that idea.

A five-dimensional field strength decomposes as \(\mathcal F=\bar F+n\wedge\Pi\), where \(\bar F\) is tangential and \(\Pi\) contains mixed normal components. Pullback protects the homogeneous Maxwell equation on \(\Sigma\), and projection of the source equation yields normal-flux and embedding-curvature terms.

In electrostatics this becomes a modified Gauss law with edge-sensitive effective charge densities. The paper defines pressure, polarity, symmetry, inversion, and shielding ratios that distinguish boundary-flux residuals from electrohydrodynamic, leakage, thermal, and scalar-energy effects.

02 / Mechanism

Projected Source Law

The paper makes the hypersurface language precise: specify what is pulled back, what is projected, which terms survive, and how those terms differ from ordinary electromagnetic artifacts.

\[ D_\mu\bar F^{\mu\nu} = \mu_0\bar J^\nu + \partial_\perp\Pi^\nu + K_\mu\bar F^{\mu\nu} + \mathcal Q^\nu[K,\Pi] + \cdots \]

01 / Pullback

The five-dimensional Bianchi identity pulls back to the homogeneous Maxwell equation on the observed hypersurface.

02 / Normal Flux

Mixed normal components \(\Pi_\mu\) can contribute effective source terms when the fifth-direction flux does not vanish.

03 / Curvature

Embedding curvature terms such as \(K_iE^i\) are edge-sensitive rather than volume-uniform.

04 / Conservation

Any projected residual must be divergence-free or paired with an explicit exchange current with the bulk.

03 / Nulls

Null Observables

A good null experiment should report ratios that survive even when the measured force is compatible with zero.

  1. Pressure Separates gas-density EHD behavior from field-and-geometry residuals.
  2. Polarity Distinguishes \(K_iE^i\) polarity-odd terms from scalar-energy \(E^2\) terms.
  3. Symmetry Checks whether matched dummy devices suppress edge-sensitive residuals.
  4. Inversion Tests device geometry, support coupling, local gravity, and environmental fields.
  5. Shielding Separates ordinary external-field interaction from internal boundary flux.

04 / Files

Paper Files

The PDF is generated from the LaTeX source. Both are published for auditability and future revision.