Research on Quantum Topological Number Theory System Based on Π Two-Dimensional Vortex Domain——On the Underlying Defects of Traditional Number Theory and the Original Proofs of Century-Old Conjectures

Abstract The traditional decimal number theory system is constructed based on a one-dimensional linear number line, serving as an artificially defined low-dimensional approximate mathematical tool. It has inherent underlying defects including dimension deficiency, information loss, rule fragmentation, and absence of intrinsic symmetry, which leave numerous long-standing problems unsolved for thousands of years, such as prime distribution, large integer factorization, and classical number theory conjectures. Breaking the shackles of one-dimensional linear counting, this paper constructs a Π two-dimensional vortex domain quantum topological number theory system and redefines the ontology of numbers, number-theoretic operations, number system classification, and symmetric evolution rules. The core theoretical premise of this study is expressed as Equation (1):$$\text{TraditionalMath}(\mathbb{R}^1) = \text{Approx}\big(\text{TopoMath}(\Pi^2)\big) \tag{1}$$. This paper strictly proves thatall natural numbers, primes, and composite numbers are quantum steady-state occupations of the two-dimensional Π vortex domain, and all rules and problems in traditional number theory are superficial projections of high-dimensional topological structures onto one-dimensional space. Relying on the $\mathbb{Z}_8 \times \mathbb{Z}_{120}$ dual symmetric group control system, this paper traces the topological origin of fundamental number theory rules including parity, divisibility, remainder, and large-number evolution. From the perspective of geometric ontology, it provides rigorous intrinsic proofs for century-old number theory conjectures including the twin prime conjecture, Goldbach conjecture, and Riemann hypothesis, completely solving industrial pain points such as inefficient large-number factorization, computational errors, and irregular prime distribution. This system satisfies the unified universal Equation (2): $$\text{NumTheory}\cup\text{Geo}\cup\text{QPhys}\cup\text{CosmoTopo} = \text{UniTopo}_\Pi \tag{2}$$. Dimension projection operator and approximation error operator are defined as: $$\mathcal{P}_{\Pi\to\mathbb{R}}: \Pi^2 \to \mathbb{R}^1,\quad \mathcal{E}_{\text{approx}} = \big\|\text{TopoMath}-\text{TraditionalMath}\big\|_2 \tag{2-1}$$. The projection operator satisfies the irreversible loss constraint: $$\ker(\mathcal{P}_{\Pi\to\mathbb{R}}) \neq \emptyset,\quad \text{Im}(\mathcal{P}_{\Pi\to\mathbb{R}}) \subsetneq \mathbb{R}^1 \tag{2-2}$$. This research realizes the universal unification of four major disciplines, subverts the three-thousand-year artificial linear mathematical paradigm, and provides brand-new fundamental theoretical support for quantum computing, advanced cryptography, underlying artificial intelligence logic, and cosmic fundamental physics research.

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Zenodo (CERN European Organization for Nuclear Research)
Published
2026-08-25
DOI
https://doi.org/10.5281/zenodo.22102993
Primary Topic
History and Theory of Mathematics
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article
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article

Research on Quantum Topological Number Theory System Based on Π Two-Dimensional Vortex Domain——On the Underlying Defects of Traditional Number Theory and the Original Proofs of Century-Old Conjectures

xiaogang shui
Zenodo (CERN European Organization for Nuclear Research)
History and Theory of Mathematics
article

Research on Quantum Topological Number Theory System Based on Π Two-Dimensional Vortex Domain——On the Underlying Defects of Traditional Number Theory and the Original Proofs of Century-Old Conjectures

xiaogang shui
article en

Abstract

Abstract The traditional decimal number theory system is constructed based on a one-dimensional linear number line, serving as an artificially defined low-dimensional approximate mathematical tool. It has inherent underlying defects including dimension deficiency, information loss, rule fragmentation, and absence of intrinsic symmetry, which leave numerous long-standing problems unsolved for thousands of years, such as prime distribution, large integer factorization, and classical number theory conjectures. Breaking the shackles of one-dimensional linear counting, this paper constructs a Π two-dimensional vortex domain quantum topological number theory system and redefines the ontology of numbers, number-theoretic operations, number system classification, and symmetric evolution rules. The core theoretical premise of this study is expressed as Equation (1):$$\text{TraditionalMath}(\mathbb{R}^1) = \text{Approx}\big(\text{TopoMath}(\Pi^2)\big) \tag{1}$$. This paper strictly proves thatall natural numbers, primes, and composite numbers are quantum steady-state occupations of the two-dimensional Π vortex domain, and all rules and problems in traditional number theory are superficial projections of high-dimensional topological structures onto one-dimensional space. Relying on the $\mathbb{Z}_8 \times \mathbb{Z}_{120}$ dual symmetric group control system, this paper traces the topological origin of fundamental number theory rules including parity, divisibility, remainder, and large-number evolution. From the perspective of geometric ontology, it provides rigorous intrinsic proofs for century-old number theory conjectures including the twin prime conjecture, Goldbach conjecture, and Riemann hypothesis, completely solving industrial pain points such as inefficient large-number factorization, computational errors, and irregular prime distribution. This system satisfies the unified universal Equation (2): $$\text{NumTheory}\cup\text{Geo}\cup\text{QPhys}\cup\text{CosmoTopo} = \text{UniTopo}_\Pi \tag{2}$$. Dimension projection operator and approximation error operator are defined as: $$\mathcal{P}_{\Pi\to\mathbb{R}}: \Pi^2 \to \mathbb{R}^1,\quad \mathcal{E}_{\text{approx}} = \big\|\text{TopoMath}-\text{TraditionalMath}\big\|_2 \tag{2-1}$$. The projection operator satisfies the irreversible loss constraint: $$\ker(\mathcal{P}_{\Pi\to\mathbb{R}}) \neq \emptyset,\quad \text{Im}(\mathcal{P}_{\Pi\to\mathbb{R}}) \subsetneq \mathbb{R}^1 \tag{2-2}$$. This research realizes the universal unification of four major disciplines, subverts the three-thousand-year artificial linear mathematical paradigm, and provides brand-new fundamental theoretical support for quantum computing, advanced cryptography, underlying artificial intelligence logic, and cosmic fundamental physics research.

Zenodo (CERN European Organization for Nuclear Research)
Institute of Computing Technology (CN)
Openalex Percentile: Top 2%
History and Theory of Mathematics
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