Gradient-based Optical Potential Wells: Macroscopic Entanglement Maintenance and Electron-Proton-Photon Interaction-Based Electromagnetic Field Structures (Extended Study of Previous Model) v.3

This study proposes a framework for macroscopic entanglement maintenance and electromagnetic field structure formation based on electron-proton-photon interactions. By integrating the analysis of excited electrons, angular momentum, photon synchronization, and energy responses in insulators and conductors, it explains the mechanisms of entanglement preservation and the fundamental principles of material structure formation. Key messages of this research include: Electron angular momentum is not a mere rotation but serves to lock spatial information into specific geometrical structures (torus, helix, etc.), determining topological stability and directional orientation of the system. Photons synchronize energy fields between electrons and protons to maintain macroscopic entanglement, regulating oscillations and waves depending on intensity and phase changes. Comparison of insulators and conductors clarifies electron energy oscillation and phase characteristics, while high-pressure environments act as entropy defense layers. This framework allows numerical modeling and experimental verification using natural phenomena (cesium oscillation, time crystals) and experimental data. It can be further extended to quantum entanglement-based information systems, material structure control, and novel energy-matter interaction applications. [email protected]