"Blind Predictions Challenging Lattice QCD: $ \Omega_{bbb} $ at 14.46 GeV and $ \Xi_{ccs}^+ $ at 3.37 GeV in a 107.1 MeV Vacuum Frequency Framework"
Abstract
Blind Geometric Predictions for Heavy-Flavor Baryons and Exotics at the Precision Frontier " Particle Physics Baryon Spectroscopy Lattice QCD Challenge Exotic Hadrons Predictive Modeling $107.1 \text{ MeV}$ Key testable predictions include: Ωbbb \Omega_{bbb} Ωbbb (bbb) at 14.46 GeV (current Lattice range: 14.3–14.5 GeV) Ξccs+ \Xi_{ccs}^+ Ξccs+ (ccs) at 3.37 GeV (current Lattice central estimates: 3.6–3.7 GeV — ~300 MeV discrepancy) Ωbbc \Omega_{bbc} Ωbbc (bbc) at 12.21 GeV (unobserved) Fully-charm tetraquark (cccc cccc cccc) at 4.50 GeV (unobserved) ccbˉbˉ cc\bar{b}\bar{b} ccbˉbˉ tetraquark at 10.92 GeV (unobserved) These values are provided in advance of any experimental measurement and are non-adjustable post-dictions. The model reproduces known hadron masses (pions → top quark) with 0.3%–2.7% relative accuracy using no free parameters beyond the vacuum frequency and geometric rules. If even one of these blind predictions is confirmed within ±0.5–1% by LHCb, Belle II or future experiments, it would constitute strong evidence that hadron mass hierarchy is governed by a fundamental harmonic geometry rather than multi-parameter effective theories. The author invites experimental scrutiny and is open to discussion and collaboration. Contact: navodahasaranga@gmail.com
Fields of Study & Subjects
Quantum Chromodynamics and Particle Interactions
Particle physics theoretical and experimental studies
High-Energy Particle Collisions Research
Publication details
- Journal / source
- Zenodo (CERN European Organization for Nuclear Research)
- Publication date
- 12 February 2026
- Language
- EN
- Document type
- Preprint