Scale-Dependent Electromagnetism in Resolution Scale Quantum Geometry: LHC Run-3 Evidence for Fractal Charge Quantization
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| Natura: | Recurso digital |
| Lingua: | inglese |
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2025
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| _version_ | 1866901972575059968 |
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| author | Henrico, Salidor Christopher |
| author_facet | Henrico, Salidor Christopher |
| contents | <p dir="auto">This paper presents a novel geometric explanation for electric charge quantization based on the scale-dependent effective dimension of spacetime in Resolution Scale Quantum Geometry (RSQG). We show that in this four-dimensional framework, electromagnetic gauge couplings become scale-dependent through the relation g_RSQG(μ) = g_SM * sqrt(d_eff(μ)/4), where d_eff(μ) is the effective spacetime dimension at energy scale μ. The electric charge quantizes as q = n e * sqrt(d_eff/4) with n in Z, providing a purely geometric alternative to Grand Unified Theories. Using renormalization group flow μ * d(d_eff)/dμ = -β (d_eff - 4) with β = 0.08, we predict d_eff(13.6 TeV) ≈ 3.95, leading to a 2.5% suppression of electroweak cross-sections. Our predictions – W+: 4242 pb, W−: 3294 pb, Z: 740 pb – match ATLAS Run-3 measurements within errors, resolving the long-standing ~2% Standard Model excess while providing the first experimental evidence for scale-dependent spacetime geometry at the TeV scale. The theory makes falsifiable predictions for HL-LHC precision measurements and offers a new paradigm for beyond-Standard-Model physics.</p> |
| format | Recurso digital |
| id | zenodo_https___doi_org_10_5281_zenodo_17896388 |
| institution | Zenodo |
| language | eng |
| publishDate | 2025 |
| publisher | Zenodo |
| record_format | zenodo |
| spellingShingle | Scale-Dependent Electromagnetism in Resolution Scale Quantum Geometry: LHC Run-3 Evidence for Fractal Charge Quantization Henrico, Salidor Christopher Resolution Scale Quantum Geometry Fractal Charge Quantization Scale-Dependent Electromagnetism Effective Spacetime Dimension LHC Run-3 ATLAS Measurements <p dir="auto">This paper presents a novel geometric explanation for electric charge quantization based on the scale-dependent effective dimension of spacetime in Resolution Scale Quantum Geometry (RSQG). We show that in this four-dimensional framework, electromagnetic gauge couplings become scale-dependent through the relation g_RSQG(μ) = g_SM * sqrt(d_eff(μ)/4), where d_eff(μ) is the effective spacetime dimension at energy scale μ. The electric charge quantizes as q = n e * sqrt(d_eff/4) with n in Z, providing a purely geometric alternative to Grand Unified Theories. Using renormalization group flow μ * d(d_eff)/dμ = -β (d_eff - 4) with β = 0.08, we predict d_eff(13.6 TeV) ≈ 3.95, leading to a 2.5% suppression of electroweak cross-sections. Our predictions – W+: 4242 pb, W−: 3294 pb, Z: 740 pb – match ATLAS Run-3 measurements within errors, resolving the long-standing ~2% Standard Model excess while providing the first experimental evidence for scale-dependent spacetime geometry at the TeV scale. The theory makes falsifiable predictions for HL-LHC precision measurements and offers a new paradigm for beyond-Standard-Model physics.</p> |
| title | Scale-Dependent Electromagnetism in Resolution Scale Quantum Geometry: LHC Run-3 Evidence for Fractal Charge Quantization |
| topic | Resolution Scale Quantum Geometry Fractal Charge Quantization Scale-Dependent Electromagnetism Effective Spacetime Dimension LHC Run-3 ATLAS Measurements |
| url | https://doi.org/10.5281/zenodo.17896388 |