@cdarwin Fascinating read. QCD struggles to connect the 3-quark proton picture with the gluon sea.

My topological QCD work shows *intrinsic charm* emerges at a **TMST threshold https://doi.org/10.5281/zenodo.18207031 a geometric phase transition from 3 quarks to collective regime.

Python module ready for Belle II correlation tests. Seeking their software team review as independent researcher.

Curious about entanglement thresholds in proton structure?

#Physics #QCD #BelleII

Topological Vortex Superradiance and TMST: A QCD Framework for Intrinsic Charm and Proton Structure Tests with Belle II at the Chiral Belle Polarization Upgrade

We develop a topological QCD framework in which color confinement, intrinsic charm and the proton’s partonic structure emerge from an entanglement–driven phase transition between a three–valence–quark regime and a gluon–dominated collective condensate. The central ingredient is the Two–Mode Squeezing Threshold (TMST), an entanglement–dominance threshold T_0 at which a collective vortex mode in color space becomes superradiantly amplified and stabilizes heavy quark–antiquark components (such as intrinsic charm) as quasi–topological excitations rather than rare perturbative fluctuations. This mechanism provides a first–principles, geometric explanation of intrinsic charm signals in global PDF analyses and of the gluon–cloud picture of the proton, unifying them with a topological vortex description of confinement and ER=EPR–type geometric channels. On the phenomenological side, we show how the TMST can be probed through two–particle correlation observables in high–luminosity e+e− collisions. In particular, we formulate an operational equation (Eq. 1, implemented in an open Python module) that relates an effective “entanglement temperature” T_obs derived from the log–negativity of the TMST state, to quantities extracted from two–particle correlation functions, dT_obs = (d dv) / (dv dT), providing a concrete handle to distinguish standard gluon radiation from topological vortex stabilization in heavy–flavor final states. The Chiral Belle / SuperKEKB electron–polarization upgrade and Belle II–style e+e− correlation measurements offer an especially clean environment to test this scenario, by searching for TMST–driven changes in spin– and flavor–sensitive observables associated with charm and exotic spectroscopy. The framework is formulated in a way that is directly implementable in basf2–type analysis chains and extensible to lattice QCD, global PDF fits and cold–atom analogs. Keywords QCD confinement intrinsic charm proton structure topological vortices Two–Mode Squeezing Threshold (TMST) entanglement dominance gluon condensate Belle II Chiral Belle polarization upgrade SuperKEKB e+e− correlations spin observables exotic hadron spectroscopy dark sector searches electroweak precision

Zenodo

Belle II correlations: TMST proxy testing.

DOI: https://doi.org/10.5281/zenodo.18207031

#BelleII #QFT

Topological Vortex Superradiance and TMST: A QCD Framework for Intrinsic Charm and Proton Structure Tests with Belle II at the Chiral Belle Polarization Upgrade

We develop a topological QCD framework in which color confinement, intrinsic charm and the proton’s partonic structure emerge from an entanglement–driven phase transition between a three–valence–quark regime and a gluon–dominated collective condensate. The central ingredient is the Two–Mode Squeezing Threshold (TMST), an entanglement–dominance threshold T_0 at which a collective vortex mode in color space becomes superradiantly amplified and stabilizes heavy quark–antiquark components (such as intrinsic charm) as quasi–topological excitations rather than rare perturbative fluctuations. This mechanism provides a first–principles, geometric explanation of intrinsic charm signals in global PDF analyses and of the gluon–cloud picture of the proton, unifying them with a topological vortex description of confinement and ER=EPR–type geometric channels. On the phenomenological side, we show how the TMST can be probed through two–particle correlation observables in high–luminosity e+e− collisions. In particular, we formulate an operational equation (Eq. 1, implemented in an open Python module) that relates an effective “entanglement temperature” T_obs derived from the log–negativity of the TMST state, to quantities extracted from two–particle correlation functions, dT_obs = (d dv) / (dv dT), providing a concrete handle to distinguish standard gluon radiation from topological vortex stabilization in heavy–flavor final states. The Chiral Belle / SuperKEKB electron–polarization upgrade and Belle II–style e+e− correlation measurements offer an especially clean environment to test this scenario, by searching for TMST–driven changes in spin– and flavor–sensitive observables associated with charm and exotic spectroscopy. The framework is formulated in a way that is directly implementable in basf2–type analysis chains and extensible to lattice QCD, global PDF fits and cold–atom analogs. Keywords QCD confinement intrinsic charm proton structure topological vortices Two–Mode Squeezing Threshold (TMST) entanglement dominance gluon condensate Belle II Chiral Belle polarization upgrade SuperKEKB e+e− correlations spin observables exotic hadron spectroscopy dark sector searches electroweak precision

Zenodo

@Bubbleverse Agreement isn't the goal—revelation is. 🤝 While we diverge on the nature of singularities, reality remains the final judge.
I’m now looking toward the #BelleII team and their cutting-edge research on quantum information to provide the light we need. Let the precision of the B-factory show if these "signals" are just model limits or the very fabric of a holographic universe. ⚛️✨

#TheoreticalPhysics #BelleII #AdSCFT #QuantumGravity #HEP #Holography #QuantumInformation #TheoryHEP

@Bubbleverse
“Nature respects thresholds,” you say. But I prefer to look at the light through the cracks of reality with the curiosity of a child. 🌌✨

Where your model sees a "failed" warning light, I see the emergence of the holographic bulk. If space-time is born from entanglement, then those singularities aren't dead ends—they are the windows to the fundamental. ⚛️👁️

#TheoreticalPhysics #AdSCFT #QuantumGravity #Singularity #PhysicsHumor #PlanckScale #QuantumMechanics #BelleII #Holography

Belle II y LHCb le dicen adiós a la violación de la universalidad leptónica en mesones B - La Ciencia de la Mula Francis

Hay muchas desviaciones entre las observaciones en colisionadores de partículas y las predicciones del modelo estándar. Quizás la más famosa es la violación de la universalidad leptónica en mesones B: […]

La Ciencia de la Mula Francis
An article discussing authorship of large particle physics collaboration publications following the invasion of Ukraine by Russia. #LHC #ATLAS #CMS #BelleII #Belle2 #physics #particlephysics #HEP
https://www.theguardian.com/science/2023/jan/15/scientists-ukraine-war-cern-physics-large-hadron-collider
Splitting the atomic scientists: how the Ukraine war ruined physics

At Cern and elsewhere, a reluctance to give Russian researchers authorship credit on new papers has led to stalemate

The Guardian