The D10Z Realization of the Yau–Tian–Donaldson Conjecture: Kähler–Einstein Metrics as Resonant Equilibrium States in the Spiderweb Fabric

The D10Z Realization of the Yau–Tian–Donaldson Conjecture: Kähler–Einstein Metrics as Resonant Equilibrium States in the Spiderweb Fabric Authors:Jamil Al Thani, Grace Cisneros Description:This paper presents a complete physical reformulation and resolution of the Yau–Tian–Donaldson (YTD) Conjecture within the framework of D10Z Mechanics of Infinity. The conjecture, which connects the existence of Kähler–Einstein metrics on Fano manifolds to K-polystability, is here reinterpreted through the resonant dynamics of the Spiderweb Fabric (TTAϵ) — a quantum fractal mesh at scale GM = 10⁻⁵¹ m. Manifolds as Meshes:Every complex manifold XXX is modeled as a D10Z Complex Resonant Nodal Mesh TTAϵ(X)\text{TTAϵ}(X)TTAϵ(X), where geometry emerges from the coherent alignment of nodal fields. K-polystability:Reformulated as D10Z Resonant K-Stability, a condition on the nodal phase field Ψcoh\Psi_{\text{coh}}Ψcoh and the metric tensor gD10Zg_{\text{D10Z}}gD10Z, modulated by test deformations governed by the Law of Sahana. Kähler–Einstein Metrics:These are shown to be resonant equilibrium states, achieved by minimizing a D10Z Energy–Coherence Functional: ED10Z=∫TTAϵ(X)(∣RicD10Z−λωD10Z∣2+α∣∇Ψcoh∣2+V(Ψcoh,Zn))E_{\text{D10Z}} = \int_{\text{TTAϵ}(X)} \left( \left|\text{Ric}_{\text{D10Z}} - \lambda \omega_{\text{D10Z}} \right|^2 + \alpha \left|\nabla \Psi_{\text{coh}} \right|^2 + V(\Psi_{\text{coh}}, Z_n) \right)ED10Z=∫TTAϵ(X)(∣RicD10Z−λωD10Z∣2+α∣∇Ψcoh∣2+V(Ψcoh,Zn)) Numerical simulations for toric Fano 2-folds (e.g., CP2\mathbb{CP}^2CP2) confirm convergence to RicD10Z=λωD10Z\text{Ric}_{\text{D10Z}} = \lambda \omega_{\text{D10Z}}RicD10Z=λωD10Z with coherence Ψcoh>0.85\Psi_{\text{coh}} > 0.85Ψcoh>0.85 and curvature alignment below 10−1010^{-10}10−10, thus supporting the theorem. Keywords:Yau–Tian–Donaldson Conjecture, Kähler–Einstein Metrics, D10Z Mechanics, Spiderweb Fabric, TTA Mesh, Resonant Geometry, Nodal Stability, Complex Manifolds, K-Stability, Law of Isis, Law of Sahana.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-05-20
DOI
https://doi.org/10.5281/zenodo.15476647
Primary Topic
Geometry and complex manifolds
Type
article
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article

The D10Z Realization of the Yau–Tian–Donaldson Conjecture: Kähler–Einstein Metrics as Resonant Equilibrium States in the Spiderweb Fabric

Zenodo (CERN European Organization for Nuclear Research)
Geometry and complex manifolds
article

The D10Z Realization of the Yau–Tian–Donaldson Conjecture: Kähler–Einstein Metrics as Resonant Equilibrium States in the Spiderweb Fabric

article en

Abstract

The D10Z Realization of the Yau–Tian–Donaldson Conjecture: Kähler–Einstein Metrics as Resonant Equilibrium States in the Spiderweb Fabric Authors:Jamil Al Thani, Grace Cisneros Description:This paper presents a complete physical reformulation and resolution of the Yau–Tian–Donaldson (YTD) Conjecture within the framework of D10Z Mechanics of Infinity. The conjecture, which connects the existence of Kähler–Einstein metrics on Fano manifolds to K-polystability, is here reinterpreted through the resonant dynamics of the Spiderweb Fabric (TTAϵ) — a quantum fractal mesh at scale GM = 10⁻⁵¹ m. Manifolds as Meshes:Every complex manifold XXX is modeled as a D10Z Complex Resonant Nodal Mesh TTAϵ(X)\text{TTAϵ}(X)TTAϵ(X), where geometry emerges from the coherent alignment of nodal fields. K-polystability:Reformulated as D10Z Resonant K-Stability, a condition on the nodal phase field Ψcoh\Psi_{\text{coh}}Ψcoh and the metric tensor gD10Zg_{\text{D10Z}}gD10Z, modulated by test deformations governed by the Law of Sahana. Kähler–Einstein Metrics:These are shown to be resonant equilibrium states, achieved by minimizing a D10Z Energy–Coherence Functional: ED10Z=∫TTAϵ(X)(∣RicD10Z−λωD10Z∣2+α∣∇Ψcoh∣2+V(Ψcoh,Zn))E_{\text{D10Z}} = \int_{\text{TTAϵ}(X)} \left( \left|\text{Ric}_{\text{D10Z}} - \lambda \omega_{\text{D10Z}} \right|^2 + \alpha \left|\nabla \Psi_{\text{coh}} \right|^2 + V(\Psi_{\text{coh}}, Z_n) \right)ED10Z=∫TTAϵ(X)(∣RicD10Z−λωD10Z∣2+α∣∇Ψcoh∣2+V(Ψcoh,Zn)) Numerical simulations for toric Fano 2-folds (e.g., CP2\mathbb{CP}^2CP2) confirm convergence to RicD10Z=λωD10Z\text{Ric}_{\text{D10Z}} = \lambda \omega_{\text{D10Z}}RicD10Z=λωD10Z with coherence Ψcoh>0.85\Psi_{\text{coh}} > 0.85Ψcoh>0.85 and curvature alignment below 10−1010^{-10}10−10, thus supporting the theorem. Keywords:Yau–Tian–Donaldson Conjecture, Kähler–Einstein Metrics, D10Z Mechanics, Spiderweb Fabric, TTA Mesh, Resonant Geometry, Nodal Stability, Complex Manifolds, K-Stability, Law of Isis, Law of Sahana.

Zenodo (CERN European Organization for Nuclear Research)
DTZ (Czechia) (CZ)
Openalex Percentile: Top 51%
Geometry and complex manifolds
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