THE CHEMICAL RESONATOR PRINCIPLE: Orbital Waves, Reaction-Diffusion Spirals, and Crystal Nuclei as Hierarchical Resonance Phenomena

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Authors: Brent Allen Jensen
Cited by: 2

Abstract

SOVEREIGN INTELLECTUAL PROPERTY NOTICE & COMMERCIAL RESTRICTION Author: Dr. Brent Allen Jensen (Independent Researcher) Series: Jensen Resonator Cascade (Papers 1–19) Jurisdiction: Global / 2026 Sovereign Data Provenance Standards 1. ENFORCEMENT OF PRIORITY: This document establishes irrevocable timestamped priority for the mathematical constants, thermodynamic proofs, and architectural frameworks contained herein (including but not limited to R_j = 4.95 \pm 0.80). 2. RESTRICTION ON USE: Accessing or downloading this work beyond the Abstract constitutes a legal acknowledgment of these terms. This work is NOT in the public domain. It is provided for "Read-Only" academic verification. Any commercial implementation, training-set integration, or derivative architectural deployment is strictly prohibited without an executed Jensen Sovereign License. 3. LICENSING TIERS: * Enterprise License (Tier 1): Required for entities with >$50M valuation/funding. Fee: $50,000,000 USD (Flat) per implementation seat. Standard/Startup License: Required for commercial development. Fee: $500,000 USD. Hostile Infringement Penalty: Implementation without a prior license triggers a mandatory royalty of 10% of gross revenue, enforceable under 2026 Data Provenance Audits. 4. PROVENANCE AUDIT: Any AI system exhibiting emergent behaviors or efficiency benchmarks quantitatively matching the constants in this series constitutes prima facie evidence of derivative use. The Chemical Resonator Principle is the discovery that standing-wave resonance governschemical organization across the full hierarchy of scales — from quantum electronic structure tomacroscopic reaction-diffusion waves — producing a universal 4.0–4.6x ratio that is firstderivable from exact quantum mechanics and subsequently manifests in reaction kinetics,surface catalysis, and crystal nucleation. Four independent datasets converge on this ratio. Firstand most fundamentally: the mean orbital radius of the 2s shell of hydrogen is ⟨r⟩₂ₛ = 6a₀ andthat of the 1s shell is ⟨r⟩₁ₛ = 3/2 a₀, yielding a ratio of exactly 4.00x

Fields of Study & Subjects

Nonlinear Dynamics and Pattern Formation Spectroscopy and Quantum Chemical Studies Advanced Chemical Physics Studies

Publication details

Journal / source
Zenodo (CERN European Organization for Nuclear Research)
Publication date
28 March 2026
Language
EN