Single electron calibration of USC parameters in two measurement regimes Hard-X diffraction and light ion collisions (CMS O–O): operational identification (κ, βcode, Λmeta) and PASS/FAIL tests

Read full text
Authors: Robert Kupski
Cited by: 0

Abstract

Doc_ID: BK-(Y01–Y03)20260131-v03Deposit title (PL/EN): Jednoelektronowa kalibracja parametrów USC / Single-electron calibration of USC parametersContents: PDF (PL), PDF (EN), LaTeX sources (PL), LaTeX sources (EN), MasterData (MDW), figures, bibliography. Description (for the “Description” field) This deposit provides a single, coherent BK-style scientific document that combines the main article with methodological appendices for the USC module (Y01–Y03). The work formulates and tests an operational calibration procedure for selected USC “structural code” parameters using observables of the ΔI(q,t)\Delta I(q,t)ΔI(q,t) type and a unified framework for normalization and environmental separation (Onorm\mathcal{O}_{\mathrm{norm}}Onorm, N0\mathcal{N}_0N0, Σ\SigmaΣ). Explicit PASS/FAIL criteria are introduced to support reproducible validation of future estimates against MDW reference values. The numerical results reported here are the first explicit, hypothesis-level estimates of the USC calibration parameters (status MDW, i.e., WORK). These values are not treated as “theory constants”; they serve as a transparent reference baseline and can be promoted to canonical values only after PASS/FAIL conditions are satisfied and stability is demonstrated on independent datasets. A comparative Planck-scale layer (μE,ηλ)(\mu_E,\eta_\lambda)(μE,ηλ) is also included, featuring a reference point for electron diffraction (example Ek=9.8 keVE_k=9.8\ \mathrm{keV}Ek=9.8 keV) and anchor points spanning: HEP (e.g., LHCb), neutrinos (PDG), THz dynamics in tellurium (magnetochiral instability reported in Nature Physics), and O–O collisions (CMS). The Planck layer is used strictly as an ordering metric based on dimensionally consistent definitions and does not introduce additional dynamical assumptions. Document structure Main article (Y01): definitions, mathematical–physical apparatus, calibration procedure, numerical results (MDW), PASS/FAIL, MasterData. Appendix Y02: formal environmental mapping (N0\mathcal{N}_0N0, Σ\SigmaΣ) and a generalized separation scheme (with CMS O–O as a reference case). Appendix Y03: explicit derivation of the slope relation m=1+βcodem = 1 + \beta_{\mathrm{code}}m=1+βcode, under a clear separation of probe-flux scaling from the nonlinear response δρval\delta\rho_{\mathrm{val}}δρval. Anchors and references (short list) Electron diffraction and interference build-up (classical reference experiments). Neutrino energy-scale anchors (Particle Data Group). THz tellurium anchor in Nature Physics (~0.3–0.4 THz magnetochiral instability). O–O HEP anchors in CMS. Representative HEP anchor from LHCb. MasterData and status of numerical values All numerical summaries are exported as MasterData in .csv and .tex formats and explicitly labeled as MDW. The PASS/FAIL procedure defines a transparent pathway from MDW to canonical values in subsequent iterations. How to cite Recommended citation includes Doc_ID: BK-(Y01–Y03)20260131-v03 and the Zenodo-record DOI (after minting). The bibliography also references the author’s earlier deposit: DOI: 10.5281/zenodo.18370716.

Fields of Study & Subjects

High-Energy Particle Collisions Research Particle Detector Development and Performance Particle physics theoretical and experimental studies

Publication details

Journal / source
Zenodo (CERN European Organization for Nuclear Research)
Publication date
1 February 2026