Attending this years loops conference in Hangzhou, China.

#lqg #china #conference #quantumgravity #Hangzhou #loops #islqg

1/n Notes on #UAP Discussions : Many of us never expected UAP to enter into consideration in work on #QuantumGravity because you'd basically be run out of town. Things changed somewhat when weight of evidence came down in favor of there being physically real vehicles involved. It isn't #SciFi anymore.
Still, many don't understand why
#QuantumMechanics and #Relativistic #Physics are important here. The concepts are challenging, even for grad students.
Einstein unified time and space and...

EFU: When We Stop Merely Measuring Reality and Start Learning Its Language

There are moments when a new unit of measurement seems, at first glance, like a technical detail. Later, it turns out to be something much more important: a change in how we think. I believe EFU may be exactly that kind of shift. It is not just another number. It is a new language for describing the flows that sustain human civilization — material, energetic, ecological, and social.

The real importance of EFU is not only what it measures, but what it reveals. It invites us to stop seeing the world as a collection of isolated data points and start seeing it as a connected system of flows. Water, energy, materials, waste, agriculture, transport, and environmental pressure are not separate stories. They are chapters of the same larger story. EFU helps make that story visible.

A New Unit, Not Just a New Label

The most interesting thing about EFU is not the number itself, but the way of thinking it encourages. When we begin to look at a problem through EFU, we no longer see only statistics. We see relationships. We see dependencies. We see thresholds, bottlenecks, imbalances, and patterns of stress that are otherwise easy to miss.

That is why EFU matters. It does not merely describe the present. It helps us ask whether a system is stable, whether it is being overburdened, and whether it can remain viable over time. In that sense, EFU is not only a measuring tool. It is a tool for understanding resilience.

Why This Could Matter More Than It First Appears

Every major historical era has had its own dominant way of measuring reality. The industrial age centered on mass, energy, and power. The digital age elevated information, data, and connectivity. The next era may well revolve around flows, pressures, limits, and ecological coherence.

EFU fits naturally into that future. It suggests that the question is not merely “how much is there?” but also:

  • How does it move?
  • What system is it part of?
  • What does it cost?
  • How long can it continue?

That is a much deeper way of thinking. It is not just accounting. It is civilizational self-awareness.

The Future Vision: When Measurement Becomes Thoughtful

What makes EFU especially exciting is that it points beyond itself. If some of the most advanced ideas in modern physics suggest that spacetime, locality, and even causality may not be fundamental, but rather emergent from a deeper layer of reality, then we are already living in a world where our old intuitions may not be enough.

EFU belongs to that broader intellectual horizon. It does not need to claim that it is “new physics.” But it can certainly be understood as a step toward a new kind of structured thinking: a way of measuring reality that is more aligned with systems, thresholds, and hidden dependencies.

In that future, artificial intelligence could become a particularly powerful partner. Not because it merely computes faster, but because it may detect patterns that are too complex for human intuition alone. If EFU is paired with AI-driven symbolic reasoning, we may not just analyze data more efficiently — we may discover new kinds of relationships:

  • hidden ratios,
  • tipping points,
  • structural imbalances,
  • and system-level laws that are difficult to express in ordinary terms.

The Intuitive Advantage

One of the strongest qualities of EFU may be its intuitive power. A good unit of measurement does not oversimplify reality. It organizes it. It makes complexity legible without distorting it.

That is especially valuable in areas like:

  • water management,
  • agriculture,
  • energy systems,
  • waste treatment,
  • urban planning,
  • and environmental policy.

In these fields, raw numbers often fail to communicate what is really happening. EFU can help bridge that gap. It can create a shared framework in which experts, decision-makers, and ordinary citizens can discuss the same problem in the same conceptual language.

That is a rare and valuable thing. A unit that improves understanding is more than a unit. It becomes a bridge.

A Small Concept With a Large Horizon

EFU may still be an emerging idea. It may need refinement, testing, and better formalization. That is not a weakness. In fact, it is often the mark of a genuinely important idea. The most transformative concepts rarely arrive in finished form. They begin as a direction, a hunch, an intuition that something essential is missing.

And perhaps that is what EFU is really pointing to: a civilization that no longer measures only what it extracts, consumes, or produces, but also what it sustains, balances, and preserves.

If that is true, then EFU is not a side project. It is a possible step toward a new intellectual culture — one that understands that the future will not be shaped only by growth, but by balance.

#aNewLanguageForMeasuringReality #abstractReality #AIAndScience #beyondNumbersUnderstandingSystemsThroughEFU #circularEconomy #conceptualShift #dimensionalAnalysis #ecologicalFlows #EFU #EFUAsAFrameworkForSustainability #emergentReality #emergentSpacetime #energyFlows #environmentalPressure #fromDataToMeaningInEnvironmentalSystems #futureOfScience #futureVision #hiddenStructures #howAICanHelpDiscoverSystemLevelLaws #HumanFluxUnit #humanCenteredMeasurement #interdisciplinaryFramework #materialFlows #measuringHumanCivilizationThroughFlows #newEpistemology #newUnitOfMeasurement #pregeometricReality #quantumGravity #resilience #resourceManagement #scientificParadigmShift #sustainability #symbolicReasoning #systemDynamics #SystemsThinking #theFutureOfMeasurementAndReality #waterManagement #whyEFUMattersForTheFuture

"The path to quantum gravity with causal sets"

A two day conference on recent developments in the causal set approach to quantum gravity.

Where? Manchester, UK
When? 07 - 08 September 2026
Organised by Stav Zalel and Yasaman Yazdi, hosted by the Royal Society

You may still request an invitation on their website.

https://royalsociety.org/science-events-and-lectures/2026/09/path-to-quantum-gravity/

#quantumgravity #causalsettheory #causalset

Espace-temps « passĂ© au mixeur » prĂšs des singularitĂ©s : la gravitĂ© quantique tenterait d’expliquer le chaos extrĂȘme des trous noirs et du Big Bang www.pourlascience.fr/sd/physique-... #Space #Science #Innovation #Astrophysics #QuantumGravity #BlackHoles #Cosmology #BigBang #NewSpace

GravitĂ© quantique : prĂšs d’une...
Espace-temps « passĂ© au mixeur » prĂšs des singularitĂ©s : la gravitĂ© quantique tenterait d’expliquer le chaos extrĂȘme des trous noirs et du Big Bang
https://www.pourlascience.fr/sd/physique-theorique/gravite-quantique-pres-d-une-singularite-l-espace-temps-serait-passe-au-mixeur-29069.php #Space #Science #Innovation #Astrophysics #QuantumGravity #BlackHoles #Cosmology #BigBang #NewSpace
Gravity feels weaker than other forces because it spreads across space-time and interacts universally with all mass-energy, diluting its strength.
#GravityMystery #FundamentalForces #QuantumGravity #Astrophysics
https://www.scientificworldinfo.com/2026/04/why-does-gravity-feel-so-weak-compared-to-other-forces.html
Why Does Gravity Feel So Weak Compared to Other Forces?

Gravity is weaker than other fundamental forces because it spreads across extra dimensions and interacts universally with all mass-energy, d...

Blogger
Discover whether Einstein’s theory of relativity can fully explain black hole singularities, where gravity becomes infinite, or if quantum physics is needed to solve the mystery.
#EinsteinRelativity #BlackHoleSingularity #QuantumGravity #GeneralRelativity #UniverseSecrets
https://www.scientificworldinfo.com/2026/04/can-relativity-explain-black-hole-singularities.html
Can Einstein’s Relativity Explain the Behavior of Black Hole Singularities?

Einstein’s Theory of General Relativity predicts the existence of black hole singularities but cannot fully explain their behavior, as the e...

Blogger
Happy #WorldQuantumDay! 🌌
On April 20, Quantum Observables for Collider Physics 2026 opens at CERN, bringing entanglement, magic, and collider observables closer to the center of high-energy physics. Proud to contribute to this direction through the Theorem 4.3.1 framework. Time to move beyond correlations and start mapping quantum geometry. 🚀
🔗 doi.org https://doi.org/10.5281/zenodo.18207031
https://doi.org/10.5281/zenodo.18353640
https://doi.org/10.5281/zenodo.18764143
#QuantumAlgorithms #QuantumGravity #Physics #Entanglement #CERN #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

Happy #WorldQuantumDay! 🌌

2026 may be the year theory truly meets experiment. Entanglement Dominance should be tested not as a fragile fluke, but as a robust geometric feature of the vacuum. From ⁎He* BEC platforms at ANU to virtual boson signatures at CERN, the message is getting harder to ignore.
Check the math and tools here:
🔗 doi.org https://doi.org/10.5281/zenodo.18207031
https://doi.org/10.5281/zenodo.18353640
https://doi.org/10.5281/zenodo.18764143
#QuantumAlgorithms #QuantumGravity #QuantumInformation #Physics #Entanglement #CERN

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