Entangled Photons and USP Field Theory: Evidence for Energy Packet Division
Year: 2025
Type: report
Abstract: This release extends USP Field Theory to explain quantum entanglement as a resonance-based process, not a paradox. Key contributions: Photon Storage & Replication: Entangled photons arise when oscillations are stored across at least two atoms (or crystal clusters) and re-emitted as parallel releases. Lattice Support: Entanglement requires lattice symmetry to sustain photon oscillations. Beyond a cutoff (Δf_max ≈ 10¹⁸ Hz), symmetry fails — predicting that gamma photons (Δf ~ 10¹⁹ Hz) cannot entangle. Position-Dependent Corridors: Entanglement efficiency appears only at symmetry-supported “hotspots” in crystals, tied to lattice periodicity (2–5 Å scale). Polarization Gating: Linear polarization aligned with lattice axes maximizes entanglement; circular polarization reduces or decouples the effect. Experimental Protocols: Raster-scan and polarization tests with nonlinear crystals (e.g., BBO) provide a falsifiable roadmap for verifying USP-specific predictions. --- 🆕 What’s New in This Version Integrated Photon Storage & Replication and Lattice Support for Oscillation Prediction sections. Added Position-Dependent Symmetry Gate Test with hotspot mapping protocol. Clarified polarization dependence and Δf cutoff predictions. Includes 2 PDFs: 1. USP Field Entanglement (with Photon Replication, Lattice & Position) 2. USP Experimental Protocols Appendix (Entanglement Tests) Includes 6 images: visual explanations of photon storage, lattice symmetry, entanglement limits, and story-style illustrations for public outreach.
Author: Sepehri, Sadegh
Language: English
Subfield: Artificial Intelligence
Field: Computer Science
Domain: Physical Sciences
Open Access status: green
OpenAlex ID: W6930811831
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