Langlands-YXT Correspondence — Constructive Correspondence between the T⁶⁴ Self-Referential Operator Spectrum and Number-Theoretic L-Functions

The Langlands program aims to unify number theory, harmonic analysis, representation theory, and algebraic geometry through a global correspondence between Galois representations and automorphic forms, mediated by L-functions. Building on the earlier spectral-zero functor ΦSpec, Yuanxian Theory established a bidirectional mapping between the spectrum of the self-referential evolution operator on the compact torus T⁶⁴ and the non-trivial zeros of the Riemann ζ-function (the GL(1) abelian case). The present work extends this framework to general GL(n). This paper introduces the Langlands-YXT Topological Correspondence Principle. It interprets the self-referential operator spectrum on T⁶⁴ as a high-dimensional global automorphic structure and constructs a covariant functorial chain from high-dimensional topological data to number-theoretic L-functions. The main results include: (1) Spectral-statistical compatibility between the Laplace–Beltrami eigenvalues of T⁶⁴ and the zeros of automorphic L-functions, with deviations controlled by the fine-structure constant α_FSC ≈ 10⁻³;(2) A Galois-topological projection correspondence: Galois representations arise as projections of the fundamental group of T⁶⁴ onto arithmetic sections, while automorphic forms arise as projections onto harmonic-analysis sections;(3) A topological reformulation of Langlands reciprocity as the isomorphism between the arithmetic and harmonic projection sections of the same T⁶⁴ component;(4) Compatibility with the geometric Langlands program via holographic isomorphism under successive dimensional reductions;(5) Three quantifiable and numerically testable number-theoretic predictions. Complete formalization code (interface layer) is available at:https://github.com/YuanXian-Theory/YXT-Formalization/tree/main/lean/Langlands 朗兰兹纲领旨在通过伽罗瓦表示与自守形式之间的全域对应(以各类 L-函数为桥梁)统一数论、调和分析、表示论与代数几何。 元宪理论前期依托谱-零点函子 ΦSpec,建立了 T⁶⁴ 紧致环面自指演化算子特征谱与黎曼 ζ 函数非平凡零点的双向映射,完成了 GL(1) 阿贝尔情形的构造性几何溯源。本文将其推广至一般 GL(n) 情形。 本文正式提出 Langlands-YXT 拓扑通约原理,将 T⁶⁴ 上自指算子谱理解为高维全域自守结构,并构建从高维拓扑原始数据到数论 L-函数的协变函子传导链。核心成果包括: (1)T⁶⁴ 拉普拉斯–贝尔特拉米算子特征值谱与自守 L-函数零点的统计相容性,偏差被精细结构常数 α_FSC ≈ 10⁻³ 严格约束;(2)伽罗瓦-拓扑投影对应:伽罗瓦表示是 T⁶⁴ 基本群在算术截面上的投影,自守形式是同一组高维谱数据在调和截面上的投影;(3)朗兰兹互反猜想的拓扑重释:对应同一 T⁶⁴ 连通分量的算术投影截面与调和投影截面之间的拓扑同构;(4)与几何朗兰兹纲领的全息同构兼容;(5)三组可量化、可数值检验的数论通约预言。 完整形式化代码(接口层)见:https://github.com/YuanXian-Theory/YXT-Formalization/tree/main/lean/Langlands

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Zenodo (CERN European Organization for Nuclear Research)
Published
2026-07-27
DOI
https://doi.org/10.5281/zenodo.21617076
Primary Topic
advanced mathematical theories
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preprint
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preprint

Langlands-YXT Correspondence — Constructive Correspondence between the T⁶⁴ Self-Referential Operator Spectrum and Number-Theoretic L-Functions

Zhenyuan Acharya
Zenodo (CERN European Organization for Nuclear Research)
advanced mathematical theories
preprint

Langlands-YXT Correspondence — Constructive Correspondence between the T⁶⁴ Self-Referential Operator Spectrum and Number-Theoretic L-Functions

Zhenyuan Acharya
preprint en

Abstract

The Langlands program aims to unify number theory, harmonic analysis, representation theory, and algebraic geometry through a global correspondence between Galois representations and automorphic forms, mediated by L-functions. Building on the earlier spectral-zero functor ΦSpec, Yuanxian Theory established a bidirectional mapping between the spectrum of the self-referential evolution operator on the compact torus T⁶⁴ and the non-trivial zeros of the Riemann ζ-function (the GL(1) abelian case). The present work extends this framework to general GL(n). This paper introduces the Langlands-YXT Topological Correspondence Principle. It interprets the self-referential operator spectrum on T⁶⁴ as a high-dimensional global automorphic structure and constructs a covariant functorial chain from high-dimensional topological data to number-theoretic L-functions. The main results include: (1) Spectral-statistical compatibility between the Laplace–Beltrami eigenvalues of T⁶⁴ and the zeros of automorphic L-functions, with deviations controlled by the fine-structure constant α_FSC ≈ 10⁻³;(2) A Galois-topological projection correspondence: Galois representations arise as projections of the fundamental group of T⁶⁴ onto arithmetic sections, while automorphic forms arise as projections onto harmonic-analysis sections;(3) A topological reformulation of Langlands reciprocity as the isomorphism between the arithmetic and harmonic projection sections of the same T⁶⁴ component;(4) Compatibility with the geometric Langlands program via holographic isomorphism under successive dimensional reductions;(5) Three quantifiable and numerically testable number-theoretic predictions. Complete formalization code (interface layer) is available at:https://github.com/YuanXian-Theory/YXT-Formalization/tree/main/lean/Langlands 朗兰兹纲领旨在通过伽罗瓦表示与自守形式之间的全域对应(以各类 L-函数为桥梁)统一数论、调和分析、表示论与代数几何。 元宪理论前期依托谱-零点函子 ΦSpec,建立了 T⁶⁴ 紧致环面自指演化算子特征谱与黎曼 ζ 函数非平凡零点的双向映射,完成了 GL(1) 阿贝尔情形的构造性几何溯源。本文将其推广至一般 GL(n) 情形。 本文正式提出 Langlands-YXT 拓扑通约原理,将 T⁶⁴ 上自指算子谱理解为高维全域自守结构,并构建从高维拓扑原始数据到数论 L-函数的协变函子传导链。核心成果包括: (1)T⁶⁴ 拉普拉斯–贝尔特拉米算子特征值谱与自守 L-函数零点的统计相容性,偏差被精细结构常数 α_FSC ≈ 10⁻³ 严格约束;(2)伽罗瓦-拓扑投影对应:伽罗瓦表示是 T⁶⁴ 基本群在算术截面上的投影,自守形式是同一组高维谱数据在调和截面上的投影;(3)朗兰兹互反猜想的拓扑重释:对应同一 T⁶⁴ 连通分量的算术投影截面与调和投影截面之间的拓扑同构;(4)与几何朗兰兹纲领的全息同构兼容;(5)三组可量化、可数值检验的数论通约预言。 完整形式化代码(接口层)见:https://github.com/YuanXian-Theory/YXT-Formalization/tree/main/lean/Langlands

Zenodo (CERN European Organization for Nuclear Research)
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Sustainable cities and communities
advanced mathematical theories
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