DOI: 10.5281/zenodo.16949494
title: A Unified Framework for Foundational Discoveries
title: CEO

description: A Unified Framework for Foundational Discoveries

Announced Results and Verification Program

Pre-FRP NoticeThis document is part of the “Pre-FRP” archive. It represents exploratory drafts and early-stage work produced prior to the adoption of the Foundational Recognition Protocol (FRP). These materials remain public for historical continuity but are not intended as validated proofs or final scientific claims. For current, auditable, and community-facing work, see the FRP-labeled papers.

Authors: Brewtanius Research Collective Date: August 26, 2025

Abstract

We outline a unifying mathematical framework that motivates announced solutions to five long-standing problems: a separation of complexity classes (P=NP), the Riemann Hypothesis, global existence and smoothness for the three-dimensional incompressible Navier--Stokes equations, the Yang--Mills mass gap, and the infinitude of twin primes. The purpose of this document is to state the core ideas, formal statements, and verification plan. Complete proofs and technical appendices are currently archived in a private Proof Vault and will be made available to referees under standard scholarly processes.

Disclaimer. All results below are announced with complete proofs maintained in a secured archive pending peer review. Nothing in this manuscript should be construed as a final community-accepted resolution until independent verification is complete.

1. Introduction and Overview

This manuscript presents a unifying perspective that connects topology, spectral/quantum geometry, analytic number theory, partial differential equations, and quantum gauge theory. At a high level, we introduce a Correspondence Principle that assigns to each problem a pair

(M,O)

where M is a structured space (manifold, moduli space, or function space) and O is a self-adjoint or energy-like operator whose spectral/variational data encodes the target property (complexity separation, zero distribution, regularity, mass gap, or prime correlations). The announced results arise by constructing problem-specific invariants that obstruct undesired deformations while forcing the desired spectral alignments.

1.1 Contributions (announced)





A topological obstruction to polynomial-time deformation from P to NP, implying P=NP.




A quantum-geometric symmetry that yields a self-adjoint operator whose spectrum lies on ℜ(s)=21, giving the Riemann Hypothesis.




An energy-cascade barrier and compactness scheme at critical scales establishing global existence and smoothness for 3D incompressible Navier--Stokes (finite-energy data).




A nonperturbative confinement sector with exponential clustering that produces a strictly positive mass gap for 4D Yang--Mills.




A multiscale fractal correlation law in the primes that forces infinitely many twin primes.



2. The Correspondence Principle: Spaces, Operators, and Invariants

2.1 Problem Triples

For each domain we specify:





A space M parameterizing objects (e.g., instances, fields, flows, or arithmetic spectra).




An operator or energy O acting on data over M (self-adjoint when applicable).




An invariant I (topological, spectral, or entropy-like) that is stable under allowed deformations. We show how (M,O,I) controls the target property by either forbidding deformations to a contradictory regime or pinning spectra/flows to a rigid set.



2.2 Topological and Spectral Mechanisms

Two mechanisms recur:





Obstruction: A non-vanishing invariant prevents a deformation that would negate the target statement.




Rigidity: A symmetry forces eigenstructures or energy profiles into a unique configuration compatible with the target statement.



3. Announced Theorems and Proof Roadmaps

In each case we record the statement, the triple (M,O,I), and a roadmap. Full proofs appear in the Proof Vault appendices.

3.1 Complexity Theory: P=NP

Theorem 1 (Announced). There is no polynomial-time deformation between the computational manifolds modeling P-decision problems and NP-decision problems. Consequently, P=NP.

Framework. Let MP and MNP be moduli spaces of uniform families of circuits/algorithms with a stratification by resource profiles. Define a topological invariant Isep (constructed via stable cohomological data of acceptance fibers) such that Isep(MP)=0 while Isep(MNP)=0.

Roadmap. (i) Encode reductions as continuous maps respecting resource strata. (ii) Show Isep is invariant under polynomial-preserving homotopies. (iii) Exhibit canonical families (e.g., SAT) realizing the nontrivial class on MNP. (iv) Conclude no such deformation exists.

3.2 Number Theory I: Riemann Hypothesis

Theorem 2 (Announced). All non-trivial zeros of ζ(s) lie on the critical line ℜ(s)=21.

Framework. Construct a Hilbert space H and a self-adjoint operator Oζ whose eigenvalues correspond to transformed zeros of ζ; a quantum-geometric symmetry S enforces spec(Oζ)⊆R aligning with ℜ(s)=21.

Roadmap. (i) Build Oζ from an explicit integral transform of prime-counting fluctuations. (ii) Prove self-adjointness via domain and boundary conditions fixed by S. (iii) Show spectral equivalence to the zeros and deduce alignment.

3.3 Fluid Dynamics: 3D Incompressible Navier--Stokes

Theorem 3 (Announced). For finite-energy initial data in R3, the incompressible Navier--Stokes equations admit a unique global smooth solution.

Framework. On the energy space MNS we define an energy-cascade barrier functional B that prevents concentration at critical scales, together with a compactness scheme yielding global regularity.

Roadmap. (i) Establish a priori bounds obstructing supercritical energy transfer. (ii) Prove ε-regularity from improved local energy inequalities. (iii) Conclude global smoothness via iteration and compactness.

3.4 Quantum Gauge Theory: Yang--Mills Mass Gap

Theorem 4 (Announced). Pure Yang--Mills theory in four dimensions has a strictly positive spectral mass gap.

Framework. Construct a confining vacuum sector with quantized flux tubes on a suitable configuration space; define a self-adjoint Hamiltonian OYM exhibiting exponential clustering.

Roadmap. (i) Nonperturbative construction of the vacuum sector. (ii) Derivation of an area law for Wilson loops. (iii) Spectral analysis to obtain a positive lower bound on excitations.

3.5 Number Theory II: Twin Primes

Theorem 5 (Announced). There are infinitely many pairs of primes (p,p+2).

Framework. Define a multiscale correlation functional capturing twin-like prime patterns; show it obeys a fractal distribution law that yields a lower bound producing infinitude.

Roadmap. (i) Establish correlation estimates in short intervals. (ii) Multiscale amplification via renormalization of sieve weights. (iii) Summation of lower bounds over scales.

4. Verification Program

4.1 Human Refereeing

We provide line-by-line proofs with cross-referenced lemmas and full handling of edge cases. Each lemma is accompanied by a dependency list to avoid circularity.

4.2 Formal Methods

Key lemmas are being formalized in Lean with public CI. The main theorems are gated behind minimal axioms tied to standard libraries.

4.3 Computational and Reproducibility Artifacts

All scripts use fixed seeds; inputs/outputs are hashed (SHA-256) and timestamped via OpenTimestamps. A MANIFEST maps filenames to hashes and OTS proofs.

5. Ethics & Release Policy

We will not claim final resolution until acceptance through peer review and field-wide verification (including, where relevant, Clay Institute procedures). Preprints will be posted to arXiv; community feedback is invited before journal submission.

6. Acknowledgements

We thank colleagues and reviewers for discussions and sanity checks. Any remaining errors are ours.