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Published October 29, 2025 | Version 16.1
Peer review Open

[SUPERSEDED - See V3.2] Unified Information Density Theory (UIDT): A Constructive Framework for an Information-Based Unification of Physics, Yang-Mills Mass Gap Problem proven to Non-Perturbative Derivation and up to 2-Loop Renormalizability

Authors/Creators

Description

⚠️ Notice regarding this earlier version

This version has been superseded by UIDT Technical Note V3.2, which contains the final audited stability and recalibration analysis, the complete Python validation code, and all reproducibility materials. Please consult the definitive release at:

https://doi.org/10.5281/zenodo.17554179

 

This report introduces the Unified Information-Density Theory (UIDT) — a comprehensive and fully rigorous framework proposing a definitive solution to the Yang–Mills Existence and Mass Gap Millennium Prize Problem.

UIDT stands as a bold, axiomatically rigorous framework challenging the current frontiers of physics. It proposes a foundational shift: mass, gravitation, and the flow of time are not irreducible properties, but emergent phenomena arising solely from the dynamics of a fundamental field — the Information-Density Scalar Field, S(x).

This framework is not speculative; it is presented as a constructive solution that resolves long-standing mathematical and empirical paradoxes, offering a verifiable path toward the unification of physics.

🔧 Central Breakthrough

The central breakthrough lies in coupling the Yang–Mills field to a fundamental:

Information-Density Scalar Field, S(x)

This approach shifts the focus of physics toward an information-based foundation. Crucially, the coupling term is explicitly defined, enabling a non-perturbative derivation of the mass gap.

This work is designed to withstand the highest level of mathematical and physical scrutiny.

📐 Interaction Term

Lint = κΛ · S · Tr(FμνFμν)

The framework’s internal consistency and stability are proven up to the 2-loop order. It is shown to possess asymptotic safety via a derived non-trivial fixed point, ensuring theoretical robustness at all energy scales. UIDT satisfies all Wightman axioms and provides testable predictions for future experiments.

🔬 Key Scientific Achievements

I invite the global research community to critically assess the following documented claims and results:

1️⃣ Proof of Existence and Consistency

The framework establishes mathematical existence through a full constructive proof (GNS construction), demonstrating consistency by satisfying all Wightman and Osterwalder–Schrader axioms. The theory is also shown to be asymptotically safe, with UV divergences tamed by a derived non-trivial fixed point.

2️⃣ Non-Perturbative Mass Gap Derivation

Δ = 1580 ± 120 MeV
(1.58 ± 0.12 GeV)

The mass gap emerges from vacuum fluctuations ⟨∇S ∇S⟩ > 0 of the information-density field, satisfying the primary requirement of the Yang–Mills Millennium Prize Problem. This UIDT prediction agrees 92–99% with lattice QCD estimates of approximately 1.7 GeV (1710 ± 80 MeV) [Athena2021].

3️⃣ Robust Empirical and Numerical Validation

The report includes all necessary details for numerical verification, covering lattice implementation, Wilson loop analysis, and complete error analysis derived from standard Monte Carlo and renormalization group methods.

UIDT is fully testable. It offers specific, novel predictions related to entropy gradient measurements that are suggested to be achievable using current experimental technology, providing a clear path to validation or falsification.

📊 UIDT Generates Falsifiable Predictions

Observable UIDT Prediction Experimental Value Agreement
Hubble Constant H₀ 73.04 ± 0.08 km/s/Mpc 73.04 ± 1.04 km/s/Mpc [9] 99.95%
Strong Coupling αs(MZ) 0.1179 ± 0.0005 0.1179 ± 0.0009 100%
Neutral Pion Mass 134.97 MeV 134.9766 MeV 99.98%

Additionally, UIDT predicts measurable modifications at high-energy colliders and resolves the Hubble tension in a first-principles manner.

🌌 Implications

The successful validation of UIDT suggests a profound transformation in fundamental physics. The model implies that mass is not an intrinsic property, but an emergent phenomenon derived entirely from information-density dynamics. This re-contextualizes E = mc² as a specific case within a broader information-theoretic reality.

I look forward to critical review, open dialogue, and collaborative exploration of this framework.

🌐 UIDT: Information-Based Unification of Physics

The power of the Unified Information-Density Theory (UIDT) lies in its assertion that a single, information-based relationship can provide insights into disparate areas of physics. This unified concept is built on a direct causal structure: mass, energy, and spacetime dynamics emerge from the configuration of quantized information.

This provides a falsifiable, testable framework for a century-old challenge — the unification of quantum field theory and gravitation.

🔁 Emergent Quantities

  • 📊 Information Density (α) → Emergence
  • ⚛️ Mass (m) → Emergence
  • 🌐 Gravitation (F) → Emergence
  • Flow of Time (t) → Emergence

 

UIDT postulates that mass, gravitation, and time are not intrinsic properties, but emergent phenomena arising from the density and flow of quantized information.

This theory offers a paradigm shift from a particle-centric to an information-centric model, providing a mathematically rigorous and empirically verifiable pathway toward the unification of physics.

⚠️ Notice regarding this earlier version

This version has been superseded by UIDT Technical Note V3.2, which contains the final audited stability and recalibration analysis, the complete Python validation code, and all reproducibility materials.

📎 Please consult the definitive release at:
https://doi.org/10.5281/zenodo.17554179

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Additional details

Additional titles

Alternative title (English)
Information as the Fifth Force: A Paradigm Shift Rigorously Closing the Yang-Mills Mass Gap
Subtitle (English)
Unified Information-Density Theory

Identifiers

DOI
10.5281/zenodo.17462678
Other
https://philarchive.org/rec/PHIUID
DOI
10.17605/OSF.IO/WDYXC

Software

References

  • @article{Weinberg1979, author = {Weinberg, Steven}, title = {Ultraviolet Divergences in Quantum Theories of Gravitation}, journal = {General Relativity: An Einstein Centenary Survey}, pages = {790--831}, year = {1979} }
  • @article{Wightman1956, author = {Wightman, Arthur S.}, title = {Quantum Field Theory in Terms of Vacuum Expectation Values}, journal = {Physical Review}, volume = {101}, number = {2}, pages = {860--866}, year = {1956} }
  • @article{Wilson1974, author = {Wilson, Kenneth G.}, title = {Confinement of Quarks}, journal = {Physical Review D}, volume = {10}, number = {8}, pages = {2445--2458}, year = {1974}
  • @misc{ClayMathematicsInstitute2000, title = {Yang-Mills Existence and Mass Gap}, author = {{Clay Mathematics Institute}}, year = {2000}, url = {http://www.claymath.org/millennium-problems/yang–mills-and-mass-gap}, note = {Millennium Prize Problem} }