NON-EQUILIBRIUM CONTROLLED ATOMIC PERTURBATION (NE-CAP): THEORETICAL FRAMEWORK AND ARCHITECTURAL SPECIFICATION

This document establishes the strict mathematical and physical framework proving that an open-quantum-system architecture—utilizing Non-Equilibrium Controlled Atomic Perturbation (NE-CAP)—can extract macroscopic, near-exponential energy yields using minimal external input. By modeling the atomic system (Li-7 lattice coupled to a localized micro-cavity) not as a closed thermodynamic vessel, but as a non-linear quantum transducer coupled to the Zero-Point Field (ZPF) of the electromagnetic vacuum under dynamic boundary conditions, we demonstrate that energy conservation is rigorously maintained. The system circumvents classical thermodynamic restrictions via All-Optical Quantum Phase-Locked feedback and Non-Linear Parametric Amplification, driving sub-threshold quantum state transitions that harvest background vacuum fluctuations without violating the First or Second Laws of Thermodynamics

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-07-22
DOI
https://doi.org/10.5281/zenodo.21495529
Primary Topic
Mechanical and Optical Resonators
Type
preprint
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preprint

NON-EQUILIBRIUM CONTROLLED ATOMIC PERTURBATION (NE-CAP): THEORETICAL FRAMEWORK AND ARCHITECTURAL SPECIFICATION

Hamed Rauf
Zenodo (CERN European Organization for Nuclear Research)
Mechanical and Optical Resonators
preprint

NON-EQUILIBRIUM CONTROLLED ATOMIC PERTURBATION (NE-CAP): THEORETICAL FRAMEWORK AND ARCHITECTURAL SPECIFICATION

Hamed Rauf
preprint en

Abstract

This document establishes the strict mathematical and physical framework proving that an open-quantum-system architecture—utilizing Non-Equilibrium Controlled Atomic Perturbation (NE-CAP)—can extract macroscopic, near-exponential energy yields using minimal external input. By modeling the atomic system (Li-7 lattice coupled to a localized micro-cavity) not as a closed thermodynamic vessel, but as a non-linear quantum transducer coupled to the Zero-Point Field (ZPF) of the electromagnetic vacuum under dynamic boundary conditions, we demonstrate that energy conservation is rigorously maintained. The system circumvents classical thermodynamic restrictions via All-Optical Quantum Phase-Locked feedback and Non-Linear Parametric Amplification, driving sub-threshold quantum state transitions that harvest background vacuum fluctuations without violating the First or Second Laws of Thermodynamics

Zenodo (CERN European Organization for Nuclear Research)
International Islamic University, Islamabad (PK)
Affordable and clean energy
Mechanical and Optical Resonators
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