What Did the First Test Miss? A Geometric Pattern in a Official CERN Open Data Publication — LHCb Ntupling Service, Request #67 (Record #94035) DOI: https://doi.org/10.7483/OPENDATA.LHCB.QSPO.BHNQ

Abstract

WHAT DID THE FIRST TEST MISS? A GEOMETRIC PATTERN IN CERN LHCb OPEN DATA #67 Independent Research — Open Call for Scientific Peer Review and Collaboration This preprint presents quantitative findings obtained through an independent reanalysis of real experimental data from the CERN LHCb Open Data Ntupling Service, Request #67, concerning the baryonic decay Λb⁰ → p K⁻ π⁺ π⁻ and its charge-conjugate channel. Official CERN Open Data record: https://opendata.cern.ch/record/94035 Dataset DOI: https://doi.org/10.7483/OPENDATA.LHCB.QSPO.BHNQ Principal scientific findings The analysis identifies a distinct LOW-sector correlation geometry within the four-body decay data. The principal reported findings include: 42,009 candidates in the selected signal-mass window. 9,183 candidates in the LOW sector. A positive raw differential asymmetry of S_LOW = +0.031952. A geometric separation quantified by Q_G = 0.440701, corresponding to an approximately 56% lower median G_perp value in LOW than in REST. Consistent directional geometric separation across both LHCb magnet polarities (MagUp and MagDown). Correlations in complementary observables that exclude the directly selected kinematic pair. These findings motivate further investigation into whether the observed structures can be fully explained by conventional hadronic dynamics, resonance contributions, phase-space correlations and detector effects, or whether additional physical descriptions deserve examination. The analysis is developed within the MAV-MCC / Unified General Theory (UGT) research programme, which proposes a relational, coherence-gated approach to physical regimes and their observable structures. The historical primary test outcome is preserved. The LOW-sector findings are retrospective and do not constitute independent, blinded confirmation of UGT. The geometric results are presented as reproducible quantitative observations requiring further physical discrimination. Explicit invitation to the scientific community I formally invite independent peer review, critical replication, scientific discussion and collaboration. Researchers specialising in experimental particle physics, hadronic phenomenology, quantum field theory, mathematical physics, statistical inference, detector systematics and related fields are encouraged to examine the results within their areas of expertise. Collaboration does not require acceptance of the UGT framework. Independent explanations, technical criticism, corrections and negative findings are explicitly welcomed. Authorship and attribution The original experimental data are provided by the LHCb Collaboration through CERN Open Data. Their publication does not imply CERN or LHCb endorsement of this independent study. The independent research programme, analysis procedures, derived observables, methodological reports and theoretical interpretations presented here are attributed to Gianni De Franco, Independent Researcher (ORCID: 0009-0008-5770-2958). Researchers who reuse or build upon these original contributions are expressly requested to cite the relevant publications and acknowledge their provenance. Previously published reproducibility material: https://doi.org/10.5281/zenodo.20748972 A supplementary peer-review research guide provides direct links to related MAV-MCC/4S+4T/UGT publications from 2025–2026, allowing specialists to identify relevant material rapidly. The objective of this publication is scientific examination, independent verification, constructive collaboration and appropriate recognition of documented original contributions.