An IR-Complete Framework for Quantum Gravity in D-dimensions v1.1

Release Tag: v1.1 What's New in v1.1 This release marks the first major update to the DCT/QG framework, including the publication of the first core theoretical paper and a significant canonical update to the project's infrastructure. Publication of Paper I: This release includes the first paper in the series, "The Universal Interior Surface of Black Holes and the Derivation of the Transdimensional Constant." This paper provides the full, first-principles derivation of the theory's central constant, $\mathcal{T} = 1/(4\ln2)$, and the universal curvature trigger, $\mathcal{I}_{\mathrm{crit}} = 48\ln2$. Canonical Updates: The framework's notation and infrastructure have been finalized. This release includes: An updated Manifest (v1.1) with canonical symbols. The Canonical Preamble (dct_preamble.tex) for use in all papers. The master Bibliography files (dct_internal_references.bib and dct_external_references.bib). Elevator summary Here's the whole idea in one breath. Spacetime has a simple, local click rule. When a clean, dimensionless curvature gauge $$ \mathcal{I} \equiv K,L^{4} $$ hits a universal threshold $$ \mathcal{I}_{\mathrm{crit}} = 48 \ln 2 = \frac{12}{\mathcal{T}}, \qquad \mathcal{T}=\frac{1}{4\ln 2}, $$ spacetime performs a tiny snap: it deletes one null pair (pure geometry) and writes exactly one irreversible bit on a thin codimension-2 surface called the Ledger $\mathcal{L}$. That one bit grows the Ledger's entropy by $\ln 2$ and "costs" a universal area tick $$ \Delta \mathcal{A} = 4 \ln 2,\ell_{\mathrm P}^{2}. $$ Between snaps everything evolves just like ordinary GR+QFT, with $\mathcal{L}$ acting as a "springy" Robin boundary. This single rule knits together geometry, quantum mechanics, and thermodynamics; it prevents singularities, explains where black-hole records live, and leads to testable signatures (ringdown echoes), plus natural dark-sector stories. Introduction — the big picture This is the public v1.1 of the manifest for an IR-complete quantum-gravity framework that works in arbitrary $D$. It lays out the few principles you actually need: the invariant $\mathcal{I}=K L^{4}$, the Transdimensional Constant $\mathcal{T}=1/(4\ln 2)$, the snap (null-pair removal), and the thermo rule that at a snap the Ledger's entropy increase equals the payload, $$ \delta S_{\mathcal{L}}=\delta S_{\mathrm{info}}, \quad \text{so} \quad \Delta \mathcal{A} = 4 \ln 2,\ell_{\mathrm P}^{2}\ \text{per payload bit}. $$ In 4D this places the Ledger at $r_{\mathcal{L}}=\sqrt{\mathcal{T}},R_S$. The manifest also ties in the Infinity Bits and the focused Raychaudhuri update that keeps focusing finite. This series builds on and supersedes the original DCT thesis \cite{DCTQG-Thesis-Original}. The seed is the same "click rule," but here it becomes a complete, systematic framework with clean derivations, consistency checks, and concrete predictions. What's in this release The Manifest (PDF + LaTeX, v1.1): The updated source of truth for symbols and core equations. Paper I: Derivation of the Transdimensional Constant (PDF + LaTeX): The first core paper of the series. Canonical Preamble (dct_preamble.tex): A unified LaTeX preamble for all papers. Master Bibliography Files: dct_internal_references.bib and dct_external_references.bib. Key features and predictions (v1.1) Universal trigger (geometry): $\mathcal{I}=K L^{4}$ with $\mathcal{I}_{\mathrm{crit}}=48\ln2$. Ledger placement in 4D: $r_{\mathcal{L}}=\sqrt{\mathcal{T}},R_S$. Transdimensional thermodynamics (information): At a snap, capacity = payload $(\delta S_{\mathcal{L}}=\delta S_{\mathrm{info}})$; one payload bit costs $\Delta \mathcal{A} = 4\ln 2,\ell_{\mathrm P}^{2}$. Quiet phases (dynamics): Between snaps, fields evolve with an inner Robin boundary on $\mathcal{L}$: $(\partial_n+\mathsf{B})\psi\big|_{\mathcal{L}}=0$. Finite focusing (no singularity): A regulated Raychaudhuri equation that prevents the formation of caustics. Testable signatures: Gravitational-wave echoes with predictable delays/phases set by $r_{\mathcal{L}}$ and the boundary kernel $\mathsf{R}(\omega)$. Stable remnants as DM candidates; a smooth Ledger contribution behaving like DE. What's coming next (Updated Roadmap) Paper 0 (Motivation): A first-principles argument for the D -> D-2 axiom. Paper I: Derivation of $\mathcal{T}$ and $\mathcal{I}_{\mathrm{crit}}$ (This Release) Papers II–VII (Core Theory): NPR, TDT, Infinity Bits, Finite Focusing, Ledger Paradox, and the Master Equation. Papers VIII–XII (Phenomenology & Cosmology): Echoes, Tensor Networks, Dark Matter, Dark Energy, and Baryon Asymmetry. Papers XIII–XVI (Consistency, Foundations & Falsifiability): Radion Sequestering, the Measurement Problem, UV-Completion, and the Kill-Test Compendium. How to read this Skim the Manifest first (10–15 min). Then, read Paper I to see the full, rigorous derivation of the framework's foundational numbers. If the core ideas make sense, you're set to explore the rest of the series as it's released. Feedback & collaboration This is deliberately falsifiable. Open issues are welcome—questions, critiques, pull requests, or data challenges.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-10-11
DOI
https://doi.org/10.5281/zenodo.17323700
Primary Topic
Radiomics and Machine Learning in Medical Imaging
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article
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article

An IR-Complete Framework for Quantum Gravity in D-dimensions v1.1

Zenodo (CERN European Organization for Nuclear Research)
Radiomics and Machine Learning in Medical Imaging
article

An IR-Complete Framework for Quantum Gravity in D-dimensions v1.1

article en

Abstract

Release Tag: v1.1 What's New in v1.1 This release marks the first major update to the DCT/QG framework, including the publication of the first core theoretical paper and a significant canonical update to the project's infrastructure. Publication of Paper I: This release includes the first paper in the series, "The Universal Interior Surface of Black Holes and the Derivation of the Transdimensional Constant." This paper provides the full, first-principles derivation of the theory's central constant, $\mathcal{T} = 1/(4\ln2)$, and the universal curvature trigger, $\mathcal{I}_{\mathrm{crit}} = 48\ln2$. Canonical Updates: The framework's notation and infrastructure have been finalized. This release includes: An updated Manifest (v1.1) with canonical symbols. The Canonical Preamble (dct_preamble.tex) for use in all papers. The master Bibliography files (dct_internal_references.bib and dct_external_references.bib). Elevator summary Here's the whole idea in one breath. Spacetime has a simple, local click rule. When a clean, dimensionless curvature gauge $$ \mathcal{I} \equiv K,L^{4} $$ hits a universal threshold $$ \mathcal{I}_{\mathrm{crit}} = 48 \ln 2 = \frac{12}{\mathcal{T}}, \qquad \mathcal{T}=\frac{1}{4\ln 2}, $$ spacetime performs a tiny snap: it deletes one null pair (pure geometry) and writes exactly one irreversible bit on a thin codimension-2 surface called the Ledger $\mathcal{L}$. That one bit grows the Ledger's entropy by $\ln 2$ and "costs" a universal area tick $$ \Delta \mathcal{A} = 4 \ln 2,\ell_{\mathrm P}^{2}. $$ Between snaps everything evolves just like ordinary GR+QFT, with $\mathcal{L}$ acting as a "springy" Robin boundary. This single rule knits together geometry, quantum mechanics, and thermodynamics; it prevents singularities, explains where black-hole records live, and leads to testable signatures (ringdown echoes), plus natural dark-sector stories. Introduction — the big picture This is the public v1.1 of the manifest for an IR-complete quantum-gravity framework that works in arbitrary $D$. It lays out the few principles you actually need: the invariant $\mathcal{I}=K L^{4}$, the Transdimensional Constant $\mathcal{T}=1/(4\ln 2)$, the snap (null-pair removal), and the thermo rule that at a snap the Ledger's entropy increase equals the payload, $$ \delta S_{\mathcal{L}}=\delta S_{\mathrm{info}}, \quad \text{so} \quad \Delta \mathcal{A} = 4 \ln 2,\ell_{\mathrm P}^{2}\ \text{per payload bit}. $$ In 4D this places the Ledger at $r_{\mathcal{L}}=\sqrt{\mathcal{T}},R_S$. The manifest also ties in the Infinity Bits and the focused Raychaudhuri update that keeps focusing finite. This series builds on and supersedes the original DCT thesis \cite{DCTQG-Thesis-Original}. The seed is the same "click rule," but here it becomes a complete, systematic framework with clean derivations, consistency checks, and concrete predictions. What's in this release The Manifest (PDF + LaTeX, v1.1): The updated source of truth for symbols and core equations. Paper I: Derivation of the Transdimensional Constant (PDF + LaTeX): The first core paper of the series. Canonical Preamble (dct_preamble.tex): A unified LaTeX preamble for all papers. Master Bibliography Files: dct_internal_references.bib and dct_external_references.bib. Key features and predictions (v1.1) Universal trigger (geometry): $\mathcal{I}=K L^{4}$ with $\mathcal{I}_{\mathrm{crit}}=48\ln2$. Ledger placement in 4D: $r_{\mathcal{L}}=\sqrt{\mathcal{T}},R_S$. Transdimensional thermodynamics (information): At a snap, capacity = payload $(\delta S_{\mathcal{L}}=\delta S_{\mathrm{info}})$; one payload bit costs $\Delta \mathcal{A} = 4\ln 2,\ell_{\mathrm P}^{2}$. Quiet phases (dynamics): Between snaps, fields evolve with an inner Robin boundary on $\mathcal{L}$: $(\partial_n+\mathsf{B})\psi\big|_{\mathcal{L}}=0$. Finite focusing (no singularity): A regulated Raychaudhuri equation that prevents the formation of caustics. Testable signatures: Gravitational-wave echoes with predictable delays/phases set by $r_{\mathcal{L}}$ and the boundary kernel $\mathsf{R}(\omega)$. Stable remnants as DM candidates; a smooth Ledger contribution behaving like DE. What's coming next (Updated Roadmap) Paper 0 (Motivation): A first-principles argument for the D -> D-2 axiom. Paper I: Derivation of $\mathcal{T}$ and $\mathcal{I}_{\mathrm{crit}}$ (This Release) Papers II–VII (Core Theory): NPR, TDT, Infinity Bits, Finite Focusing, Ledger Paradox, and the Master Equation. Papers VIII–XII (Phenomenology & Cosmology): Echoes, Tensor Networks, Dark Matter, Dark Energy, and Baryon Asymmetry. Papers XIII–XVI (Consistency, Foundations & Falsifiability): Radion Sequestering, the Measurement Problem, UV-Completion, and the Kill-Test Compendium. How to read this Skim the Manifest first (10–15 min). Then, read Paper I to see the full, rigorous derivation of the framework's foundational numbers. If the core ideas make sense, you're set to explore the rest of the series as it's released. Feedback & collaboration This is deliberately falsifiable. Open issues are welcome—questions, critiques, pull requests, or data challenges.

Zenodo (CERN European Organization for Nuclear Research)
Quantified Uncertainty Research Institute (US)
Industry, innovation and infrastructure
Openalex Percentile: Top 36%
Radiomics and Machine Learning in Medical Imaging
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