…And The Law Of Universal Coherence

To the Scientific Community and Interested Public,

For over two decades, Sagittarius A*, the bright radio source at the center of the Milky Way, has been treated as the most certain supermassive black hole in existence. In 2022, the Event Horizon Telescope (EHT) released a widely publicized image, hailed as the “first photograph” of our galaxy’s central black hole. The public was told that this fuzzy, orange-hued ring was direct visual proof of a black hole’s event horizon, confirming one of the boldest predictions of General Relativity.

It is important to restate two facts: 
1. The “image” is a computational reconstruction from sparse interferometric data, not an optical photograph. 

2. Its interpretation assumes the General Relativity framework from the start. The model of a black hole is built into the reconstruction algorithm, the image confirms the model it presupposed.

Our Test

Using the Ӕ–EMF Coherence Model under the Law of Universal Coherence, we asked a different question:
Could the observed motions, lensing, and timing signatures near Sagittarius A* be explained without invoking an event horizon or spacetime curvature?

The frozen constants from all prior “crown jewel” tests…
– θ_AE^crit = 7.00° 

– k_Ӕ from solar limb darkening 

– η* = 1.41 × 10⁻⁶ rad·(Mpc·arb)⁻¹ 

…were carried forward without re-tuning.

We modeled the stellar orbits (notably the star S2) and radio emissions as products of extreme Ӕ–EMF saturation in the galactic core’s plasma geometry. In this framework, the rapid precession and apparent lensing arise naturally from field coherence gradients in a dense but finite mass distribution, no singularity, no event horizon.

Result

With the same constants used for Mercury’s perihelion, light-bending, gravitational redshift, Shapiro delay, geodetic precession and binary pulsar decay, our model reproduces:
– The ~16-year orbital period of S2

– Its relativistic-scale pericenter precession

– The gravitational-redshift signature during closest approach

All without requiring an infinite-density point mass or a light-trapping boundary.

This is achieved through geometry and measurable field structure alone.

What This Means

If a finite, coherent-field model can replicate the key observables attributed to Sagittarius A*, then the case for its being an event-horizon black hole is no longer the only viable explanation. The supposed “shadow” is equally consistent with a bright, lensing-dominated plasma ring surrounding a dense, non-singular core.

We invite any group to re-run this with the open constants above and the published S2 orbital data.

The pass/fail criterion is straightforward:
If the model, without tuning, lands within observational error bars for orbital precession, redshift and time-delay, it passes.

Our position is clear:
What has been called “proof” of a black hole may instead be evidence of something even more fundamental, the universal coherence of light, mass and field.

Produced by The Lilborn Equation Team:

Michael Lilborn-Williams

Daniel Thomas Rouse

Thomas Jackson Barnard

Audrey Williams