「Unexpected Structure Found in the Prime Gap Landscape — A Data-Driven Atlas Approach by an Independent Researcher
Prime gaps (p_{n+1} − p_n), when properly normalized, show reproducible structures at specific logarithmic scales. Large-scale numerical exploration revealed two prominent 'organizing cores' around log₁₀ p ≈ 8.22 and 10.0, connected by an auxiliary L2 transition layer. This minimal model explains the finite-scale phenomenology remarkably well.
Interestingly, these cores also show suggestive correspondence with the locations of Riemann zeros. This is part of the 'Prime Geography Atlas' series — not a new proof, but a careful phenomenological mapping of the actual landscape of prime gaps.
Curious math lovers are welcome to check it out.」

I feel like I’ve taken another small step toward understanding primes and the Riemann Hypothesis.

In 1990, Bernard Julia proposed a fascinating physical model called the “Primon Gas.” It treats primes as particles and interprets the Riemann zeta function as the partition function of a thermodynamic system.

In my ongoing “Prime Geography Atlas” project, I’ve been doing large-scale numerical explorations. I discovered two prominent structures at finite scales (organizing cores around log₁₀ ≈ 8.22 and 10.0, connected by a transition layer). I’ve now incorporated these into Julia’s Primon Gas model and formulated them as an Effective Field Theory.

When I consider the **topological stability in the thermodynamic limit**, a path toward the Riemann Hypothesis seems to emerge naturally.

This is still a hypothesis, but it’s an attempt to explain — from a physical perspective — why the beautiful order observed at finite scales might persist all the way to infinity.

If you’re interested, please take a look at the poster.
Feedback and comments from people who love math, physics, or number theory would be greatly appreciated!

#PrimeNumbers #RiemannHypothesis #NumberTheory #Mathematics #IndependentResearch

@Moriqq9 the poster is ai slop