Electro Magnetic Curvature Theory – Working Summary
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2026
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| _version_ | 1866901938118852608 |
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| author | Griffiths, Wayne |
| author_facet | Griffiths, Wayne |
| contents | <h1><strong>Electromagnetic Curvature Theory v2.0</strong></h1> <p><strong>Electromagnetic Curvature Theory v2.0</strong> presents a governed, falsifiable, and accelerator‑ready research architecture for probing whether quantum‑coherent electromagnetic systems can generate measurable spacetime curvature signatures, or—if no effect exists—establish the strongest laboratory bounds to date on electromagnetic–gravity coupling.</p> <p>This version introduces major upgrades: • <strong>Expanded theoretical foundation</strong>, including Weyl curvature from electromagnetic fields (Lindgren & Liukkonen 2021), gravitational anomalies in chiral superconductors (Volovik 2021), and rotating‑field Weyl tensor modulation (Qiao 2025). • <strong>New apparatus architecture</strong>, including a dual‑ring HTS toroidal stack, axial superconducting lens, cryogenic vacuum system, and dual‑channel detection (interferometry ~10⁻¹⁵ rad; torsion balance ~10⁻¹² N·m). • <strong>Four‑tier falsifiability and detection ladder</strong>, enabling gross‑anomaly detection through to Tier‑4 null bounds at 10⁻¹⁸ rad/s. • <strong>Critical unknowns table</strong>, addressing amplification mechanisms, material dependence (YBCO vs Nb), coherence volume, detection thresholds, and scaling behaviour. • <strong>Integration of external experimental context</strong>, including Tajmar et al. (2006) positive and null results, and new material candidates such as monocrystalline REBCO (2025). • <strong>Canon integration</strong>, aligning the architecture with the broader Griffiths Canon research program while remaining a standalone theoretical and experimental framework.</p> <p>The apparatus is buildable with commercial components for <strong>$300k–$500k USD</strong> over <strong>33–54 months</strong>. Both positive and null results produce publishable scientific outcomes: either evidence of curvature‑like signatures (Weyl‑type, GEM‑type, or anomalous solid‑state plasma effects), or the strongest laboratory constraints yet established.</p> <p>This paper does <strong>not</strong> claim propulsion, exotic matter, or violations of general relativity. It provides a disciplined, falsifiable pathway for experimentally probing an open question permitted by GR but never tested with modern superconductors, vacuum systems, or precision metrology.</p> <div> </div> <div> </div> |
| format | Recurso digital |
| id | zenodo_https___doi_org_10_5281_zenodo_19521301 |
| institution | Zenodo |
| language | |
| publishDate | 2026 |
| publisher | Zenodo |
| record_format | zenodo |
| spellingShingle | Electro Magnetic Curvature Theory – Working Summary Griffiths, Wayne electromagnetic curvature, spacetime curvature, gravitoelectromagnetism, superconducting rings, toroidal EM ring stack, axial electromagnetic lens, quantum coherence, Berry curvature, solid-state plasma, frame-dragging, gravitomagnetic effects, torsion balance, interferometry, precision metrology, weak-field gravity, stress-energy tensor, superconductivity, high-temperature superconductors, vacuum systems, cryogenic systems, warp-metric boundary, anisotropic stress-energy, null controls, metric perturbations, experimental physics, fundamental physics, laboratory-scale gravity tests <h1><strong>Electromagnetic Curvature Theory v2.0</strong></h1> <p><strong>Electromagnetic Curvature Theory v2.0</strong> presents a governed, falsifiable, and accelerator‑ready research architecture for probing whether quantum‑coherent electromagnetic systems can generate measurable spacetime curvature signatures, or—if no effect exists—establish the strongest laboratory bounds to date on electromagnetic–gravity coupling.</p> <p>This version introduces major upgrades: • <strong>Expanded theoretical foundation</strong>, including Weyl curvature from electromagnetic fields (Lindgren & Liukkonen 2021), gravitational anomalies in chiral superconductors (Volovik 2021), and rotating‑field Weyl tensor modulation (Qiao 2025). • <strong>New apparatus architecture</strong>, including a dual‑ring HTS toroidal stack, axial superconducting lens, cryogenic vacuum system, and dual‑channel detection (interferometry ~10⁻¹⁵ rad; torsion balance ~10⁻¹² N·m). • <strong>Four‑tier falsifiability and detection ladder</strong>, enabling gross‑anomaly detection through to Tier‑4 null bounds at 10⁻¹⁸ rad/s. • <strong>Critical unknowns table</strong>, addressing amplification mechanisms, material dependence (YBCO vs Nb), coherence volume, detection thresholds, and scaling behaviour. • <strong>Integration of external experimental context</strong>, including Tajmar et al. (2006) positive and null results, and new material candidates such as monocrystalline REBCO (2025). • <strong>Canon integration</strong>, aligning the architecture with the broader Griffiths Canon research program while remaining a standalone theoretical and experimental framework.</p> <p>The apparatus is buildable with commercial components for <strong>$300k–$500k USD</strong> over <strong>33–54 months</strong>. Both positive and null results produce publishable scientific outcomes: either evidence of curvature‑like signatures (Weyl‑type, GEM‑type, or anomalous solid‑state plasma effects), or the strongest laboratory constraints yet established.</p> <p>This paper does <strong>not</strong> claim propulsion, exotic matter, or violations of general relativity. It provides a disciplined, falsifiable pathway for experimentally probing an open question permitted by GR but never tested with modern superconductors, vacuum systems, or precision metrology.</p> <div> </div> <div> </div> |
| title | Electro Magnetic Curvature Theory – Working Summary |
| topic | electromagnetic curvature, spacetime curvature, gravitoelectromagnetism, superconducting rings, toroidal EM ring stack, axial electromagnetic lens, quantum coherence, Berry curvature, solid-state plasma, frame-dragging, gravitomagnetic effects, torsion balance, interferometry, precision metrology, weak-field gravity, stress-energy tensor, superconductivity, high-temperature superconductors, vacuum systems, cryogenic systems, warp-metric boundary, anisotropic stress-energy, null controls, metric perturbations, experimental physics, fundamental physics, laboratory-scale gravity tests |
| url | https://doi.org/10.5281/zenodo.19521301 |