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April 30, 2026Open Access

Paper 11 Charge-Entanglement Ontology Gentle Stacking and Nuclear Fusion Techniques

Key Points

This work aims to establish a theoretical framework for controlled nuclear fusion through Gentle Stacking.
Derivation of Gentle Stacking Criterion incorporating spatial noise and photon degeneracy pressure.
Integration of Dynamic Casimir Effect for photon generation and advanced control methods.
Analysis of reactor scaling laws and critical-density safety for reactor designs.
Achieved predicted performance of 1.2–3+ GW thermal with Q = 50–200+ in a ~5 m reactor.
Established criteria for maintaining sweet-spot regime in reactor operations.
Provided a concrete pathway toward practical gentle-stacking reactors through optimized designs.

Abstract

Gentle Stacking and Nuclear Fusion Techniques presents a complete theoretical framework for controlled nuclear fusion based on the Charge-Entanglement Ontology. Gentle Stacking is defined as the low-noise, incremental reconfiguration of Alpha Void Tears that resolves excess shared locking \ (m \) without triggering a hypernova-style release. The paper derives the full Gentle Stacking Criterion, incorporating spatial noise \ (ₕ \), photon degeneracy pressure as a stabilizer, and a noise-augmented WKB tunneling probability. Reactor scaling laws, the analytic sweet spot (\ (a (T) ₎₏ₓ = 1/B (1-d) \) ), sweet size, and predicted performance (1. 2–3+ GW thermal, Q = 50–200+ in a ~5 m reactor) are obtained directly from the drainage engine. The Dynamic Casimir Effect is integrated for active photon generation, and advanced control (MPC + EKF) is shown to maintain the sweet-spot regime. Critical-density safety analysis and a paradigm shift toward low-noise, degeneracy-optimised design complete the work. The framework explains stellar fusion stability and offers a concrete path to practical terrestrial gentle-stacking reactors.

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