Sky Darmos and the "G Data" Analysis

This article examines Sky Darmos's hypothesis, as presented by Rupert Sheldrake, within a Quantum Spacetime framework: the proposal that morphic fields—non-local, informational structures—guide the self-organization of physical systems across space and time. Aligned with the author's deterministic commitments, the piece treats this not as mysticism but as a testable hypothesis about how form, memory, and pattern propagate via resonant informational substrates. It contrasts Sheldrake's formative causation with standard quantum field theory, asking whether morphic resonance could represent an emergent layer of spacetime geometry—governed by lawful, geometric principles, not supernatural agency. Framed rigorously, the hypothesis invites empirical scrutiny: if information is fundamental, could biological and cosmic order arise from deterministic, field-based constraints awaiting mathematical formalization?

🧪 The “G Data” and its Proposed Link to Atomic Numbers
Sky Darmos’s revolutionary claim rests on a specific reinterpretation of decades of measurements of the gravitational constant, G, and connects it to the properties of elements.

Claim AspectDescription in Darmos’s Framework “G Data” AnalysisRe-analysis of 50 years of experimental G measurements reveals a correlation with a statistical significance of 1 in 10^69, which he argues is not a random fluke.

He asserts that a re-analysis of 50 years of experimental measurements for the gravitational constant (G) reveals a statistically significant correlation (which he quantifies as a “1 in 10^69” anomaly) that mainstream physics dismisses as measurement error.
His theory, SPD-Quantum Gravity, explains this anomaly by proposing that the gravitational force is not purely dependent on mass, as in Newton’s or Einstein’s theories. Instead, he claims it depends on the baryon number—the total number of protons and neutrons in an atomic nucleus.
This is the direct link to atomic numbers:
The atomic number defines an element (its number of protons).
The baryon number (protons + neutrons) of a nucleus is what Darmos’s theory identifies as the key property influencing its gravitational interaction in his model.
This leads him to predict a violation of the Equivalence Principle, suggesting that two objects with identical mass but different elemental composition (and thus different baryon numbers) could, in his model, fall at slightly different rates.
This is the technical foundation of his argument that the “G data” contains a hidden pattern related to atomic structure.

The Link Between “Baryon Number” and “Matter Density”
In Mainstream Physics: In both Newtonian gravity and General Relativity, the source of the gravitational field is mass-energy. For ordinary matter, this is dominated by mass. “Matter density” is simply mass per unit volume. The more mass you pack into a volume, the stronger the gravitational effect.
In Darmos’s Claim: By shifting the source of gravity from pure mass to baryon number (protons + neutrons), he is proposing a different “counting” method for what creates gravity. Since over 99% of the mass of ordinary matter comes from the protons and neutrons in its atoms, baryon number is almost perfectly proportional to mass.
The Key Difference: This is where his challenge lies. Mainstream physics, via the Equivalence Principle, says gravity couples to mass regardless of what that mass is made of. Darmos’s proposal suggests gravity couples specifically to the count of baryons. While these are usually proportional, his proposed experiments (like the free-falling lead sphere vs. another material) are designed to find a tiny, previously undetected difference that would appear if the composition (and thus the precise relationship between baryon count and mass) matters.