JMP0X1B Research

Working paper / June 6, 2026

Electrostatic Projection Couplings in Five-Dimensional Maxwell-Compatible Theory

A speculative continuation toward Brown-style electrogravity and falsifiable fifth-sector residuals.

01 / Abstract

Abstract

The companion working paper Twelve Five-Dimensional Projection Models for Maxwell-Compatible Electromagnetism develops a theory tree in which different five-dimensional structures reduce to ordinary four-dimensional Maxwell equations when the fifth sector decouples. This continuation asks what happens in the electrostatic limit when the fifth sector does not fully decouple.

The paper formulates three candidate paths: a fifth-current electrostatics path, a scalar or radion readout path, and a metric-mixing path. Each path preserves ordinary Gauss-Poisson electrostatics as the zeroth-order limit while allowing a controlled residual term sourced by electrostatic field energy, field gradients, dielectric polarization, or projection curvature.

The result is not a claim of antigravity. It is a falsifiable speculative theory template: any surviving residual must be pressure-independent, shield-compatible, momentum-conserving, geometry-sensitive in a predicted way, and bounded by modern nanonewton-scale null searches.

02 / Presentation

What The Paper Does

The paper narrows the five-dimensional program to electrostatics. Instead of treating Brown-style capacitor observations as evidence by themselves, it decomposes the force budget and leaves only a candidate fifth-sector residual after conventional effects are bounded.

Problem

Define electrostatic projection couplings that recover ordinary Gauss law when the fifth sector decouples.

Method

Separate fifth-current, scalar readout, and metric-mixing paths before attaching any claim to experiment.

Standard

Conventional EHD, Maxwell stress, thermal, leakage, and vibration effects must be modeled first.

\[ \mathbf{F}_{obs} = \mathbf{F}_{EHD} + \mathbf{F}_{Maxwell} + \mathbf{F}_{thermal} + \mathbf{F}_{leak} + \mathbf{F}_{vibration} + \mathbf{F}_{5D} \]

03 / Paths

Three Speculative Paths

Each path keeps ordinary electrostatics as the baseline and makes the speculative correction explicit enough to test.

A / Fifth Current

Treats the fifth sector as a hidden charge reservoir. Clean signatures would look like anomalous capacitance, dielectric relaxation, or shielding residuals, not immediate thrust claims.

B / Scalar Readout

Lets electrostatic field energy source a scalar or radion field. Gravity reads that field weakly, making the path closer to weight modulation than free propulsion.

C / Metric Mixing

Uses Kaluza-style metric components and projection geometry. It is attractive mathematically, but must be treated as constrained phenomenology.

04 / Protocol

Falsification Protocol

A speculative paper should make itself easy to falsify. The proposed protocol turns failed experiments into useful bounds instead of ambiguous negative results.

  1. Force budget Measure current, temperature, vibration, leakage, corona, ion production, and support forces.
  2. Pressure ladder Repeat from atmospheric pressure to high vacuum and fit gas-dependent EHD models first.
  3. Geometry pair Compare asymmetric and symmetric capacitors with matched stored energy and leakage behavior.
  4. Polarity pair Reverse polarity at fixed \(E^2\) to separate scalar energy paths from charge-fiber leakage.
  5. Orientation Rotate the sealed device relative to local gravity and predeclare the sign change or null result.
  6. Null bound If no residual survives, publish upper bounds on the combined coupling parameters.

05 / Continuity

Connection To Paper 001

This paper is a continuation of the twelve-branch projection tree. Its strongest links are to the energy-coordinate, compact fifth-dimension, charge-fiber, scale-flow, full metric dynamic, constraint-hypersurface, and fifth-force conversion branches.

The stronger recovery condition for this continuation is

\[ \rho_5 = 0,\qquad s = 0,\qquad \nabla s = 0,\qquad K_iE^i = 0,\qquad \mathbf{F}_{5D}=0 \]

06 / Files

Paper Files

The PDF is generated from the LaTeX source. Both are published so the paper can be audited, rebuilt, revised, and cited from the original source.