A Resonance-Driven Threshold Model for D-D Fusion via Irrational-Exponent Amplification v11

Cold fusion remains experimentally elusive due to the absence of a non-thermal mechanism capable of lowering the D–D Coulomb barrier. This work proposes a resonance-driven model arising from re-examining three idealizations in conventional physics: thermodynamic equilibrium, SI unit definitions, and the fixed value of c. These assumptions conceal digit-sensitive nonlinearities in structured lattices. I introduce a local energy expression E = m ⋅ f^{π/e}, where f is the Pd–D resonance frequency and π/e provides an irrational amplification exponent evaluated at high digit precision. Small perturbations of f, such as single-photon absorption, yield disproportionately large changes in tunneling probability. Numerical simulations show that 10⁶ absorbed photons at 780 nm raise the D–D tunneling probability to near certainty (an increase of 76.23 orders of magnitude), producing a sharp “resonance cliff.” This mechanism offers a falsifiable, non-thermal pathway for D–D fusion and may explain longstanding reproducibility challenges in LENR experiments. The formulation assumes the Observer is embedded within the physical system, not external to it. A structured, digit-sensitive resonance mechanism governed by an irrational exponent formalism (details in the SI) is shown to produce a non-analytic tunneling threshold under realistic condensed-matter conditions along with a defined new Mathematical Identity as a predictor, updated with Mathematical Identity Generalizations. An experimentally falsifiable, mathematically explicit threshold formulation, constructed under realistic Energy quantifiable metrics, an a new Measurement Unit is included as Integrated Supplementary Information within this manuscript. Note (v11): Exact parameters for POC details in IP note for high precision mpmath, offer superior robustness against digit truncation, lattice jitter, thermal noise, and decoherence in real condensed-matter conditions. A full experimental setup, including Quantum Chaos Maps, Informational Field Phase-Resonance, and sin-cancellation solutions, is available upon formal request for replication under appropriate NDA / data-transfer agreement. Contact the author via Zenodo DOI or ORCID.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-01-14
DOI
https://doi.org/10.5281/zenodo.18671343
Primary Topic
Cold Fusion and Nuclear Reactions
Type
article
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article

A Resonance-Driven Threshold Model for D-D Fusion via Irrational-Exponent Amplification v11

Mihaita Botezatu
Zenodo (CERN European Organization for Nuclear Research)
Cold Fusion and Nuclear Reactions
article

A Resonance-Driven Threshold Model for D-D Fusion via Irrational-Exponent Amplification v11

Mihaita Botezatu
article en

Abstract

Cold fusion remains experimentally elusive due to the absence of a non-thermal mechanism capable of lowering the D–D Coulomb barrier. This work proposes a resonance-driven model arising from re-examining three idealizations in conventional physics: thermodynamic equilibrium, SI unit definitions, and the fixed value of c. These assumptions conceal digit-sensitive nonlinearities in structured lattices. I introduce a local energy expression E = m ⋅ f^{π/e}, where f is the Pd–D resonance frequency and π/e provides an irrational amplification exponent evaluated at high digit precision. Small perturbations of f, such as single-photon absorption, yield disproportionately large changes in tunneling probability. Numerical simulations show that 10⁶ absorbed photons at 780 nm raise the D–D tunneling probability to near certainty (an increase of 76.23 orders of magnitude), producing a sharp “resonance cliff.” This mechanism offers a falsifiable, non-thermal pathway for D–D fusion and may explain longstanding reproducibility challenges in LENR experiments. The formulation assumes the Observer is embedded within the physical system, not external to it. A structured, digit-sensitive resonance mechanism governed by an irrational exponent formalism (details in the SI) is shown to produce a non-analytic tunneling threshold under realistic condensed-matter conditions along with a defined new Mathematical Identity as a predictor, updated with Mathematical Identity Generalizations. An experimentally falsifiable, mathematically explicit threshold formulation, constructed under realistic Energy quantifiable metrics, an a new Measurement Unit is included as Integrated Supplementary Information within this manuscript. Note (v11): Exact parameters for POC details in IP note for high precision mpmath, offer superior robustness against digit truncation, lattice jitter, thermal noise, and decoherence in real condensed-matter conditions. A full experimental setup, including Quantum Chaos Maps, Informational Field Phase-Resonance, and sin-cancellation solutions, is available upon formal request for replication under appropriate NDA / data-transfer agreement. Contact the author via Zenodo DOI or ORCID.

Zenodo (CERN European Organization for Nuclear Research)
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