Symbolic Shell Cascades and Tension Regeneration: A Framework for Self-Sustaining Energy Fields

This paper introduces a new theoretical framework for Symbolic Shell Cascades and Tension Regeneration, expanding upon prior research in Symbolic Modular Field Theory (SMFT) and energy harvesting fields. The model describes how nested symbolic field shells can dynamically transfer and regenerate curvature tension through harmonic feedback loops. We derive equations governing shell collapse thresholds, feedback tension transfer, and multi-shell harmonic resonance. A regenerative field oscillator is proposed, capable of prolonging symbolic energy retention and potentially enabling self-sustaining energy architectures. The framework includes: Mathematical formalization of shell tension dynamics Feedback-based regenerative transfer equations A roadmap for simulation and parameter optimization Potential applications in quantum coherence stabilization and modular gravity management This work represents a foundational step toward field-based energy harvesting and symbolic containment architectures, providing a roadmap for future simulation and experimental validation.