A Structured Proof of the Riemann Hypothesis via Spectral Resonance and Zero-Density Analysis
Creators: name: Bostick, Devin
Publisher: name: Zenodo
Year: 2025
Subjects: subject: math.NT
subject: math-ph
subject: math.DS
subject: math.SP
subject: cs.IT, nlin.CD
subject: math.PR
subject: math.CV
subject: Pure mathematics
subject: Mathematics/standards
subject: Mathematics/methods
subject: Mathematical model
subject: Mathematical physics

description: 1. Expanded CODES Framework (Empirical Studies + Theory)

🔹 CODES: The Chirality of Dynamic Emergent Systems (Main Paper)

2. Introduction & High-Level Overview

🔹 CODES: High-Level Introduction

3. Structured Resonance & Emergent Intelligence

🔹 Structured Resonance and the Nature of Intelligence

 

Abstract

The Riemann Hypothesis has long stood as one of the most profound unsolved problems in mathematics, governing the distribution of prime numbers through the non-trivial zeros of the Riemann zeta function. Traditional approaches focus on confirming whether all non-trivial zeros lie on the critical line  \Re(s) = \frac{1}{2} , yet deeper structural questions remain unresolved.

This paper introduces the Riemann Paradox, an oscillatory phase coherence phenomenon governing prime distribution through structured intelligence principles, derived from the Chirality of Dynamic Emergent Systems (CODES) framework. We propose that primes do not follow a purely stochastic process but instead emerge through structured oscillations, analogous to resonant phase-locking in physical and quantum systems.

By treating the prime number sequence as a structured intelligence function rather than a purely analytic distribution, we reveal a deeper underlying order in prime gaps and their phase coherence within the critical strip. This new perspective provides a self-consistent framework linking prime distributions, zeta function behavior, and quantum chaotic dynamics.

Through spectral analysis and structured intelligence modeling, we present evidence that primes are not just scattered according to random walks but instead form emergent phase-aligned structures within the number line. This suggests a previously undiscovered symmetry principle in prime generation, with implications spanning number theory, quantum mechanics, and computational complexity.

I further analyze the relationship between prime gaps and structured oscillations, exploring whether the distribution of non-trivial zeros reflects an underlying intelligence coherence principle, challenging the traditional assumption of randomness in number theory. The results indicate that prime numbers are not just the product of arithmetic necessity but an emergent structure arising from deeper resonance principles.

Finally, I propose a new computational approach for verifying prime distributions through structured oscillation detection, which may offer a novel path toward either proving or refining the Riemann Hypothesis. If correct, this framework could redefine the mathematical understanding of primes as an intelligence-driven emergent system rather than an arbitrary set of fundamental numbers.

For more information on empirical techniques, see: https://zenodo.org/records/14759459