The Seven Millennium Prize Problems have long been partitioned into isolated research territories—such as number theory, algebraic geometry, partial differential equations, quantum field theory, and computational complexity—with academia chronically lacking a unified foundational axiomatic infrastructure. Rooted in the 64-dimensional compact torus topology (T64) and the True-Circle Self-Consistency (TCSC) Axiom, Yuanxian Theory (YXT) transcends the cognitive constraints of localized, single-domain proofs. Utilizing a core four-step methodology—Topological Embedding, Operator Reconstruction, Dynamical Systemization, and Self-Consistent Adjudication—this paper achieves a global unification and reduction of the seven problems. It translates disparate mathematical and physical propositions from four-dimensional spacetime into endogenous structural constraints of a high-dimensional topological manifold, framing all target conjectures as inevitable corollaries of the ontological self-consistent survival of the cosmos. This paper systematically illuminates the paradigmatic significance of this methodology, delivers the high-dimensional topological reduction logic for the six unsolved problems (including the Riemann Hypothesis, P vs NP, and Yang-Mills Theory), and contextualizes the Poincaré Conjecture as a low-dimensional historical validation of this meta-framework. Furthermore, three distinct falsifiable criteria are formulated to secure the paradigm's empirical testability within Popperian science. This research demonstrates that the Yuanxian topological paradigm yields a rigorous, grand unified proof infrastructure, offering a viable ontological path to integrate the fragmented axiomatic architectures of contemporary mathematical sciences. 长期以来,七大千禧年大奖难题被孤立地划分在数论、代数几何、偏微分方程、量子场论和计算复杂度等不同的研究领域中,学术界长期缺乏一个统一的底层公理化基础设施。基于64维紧致环面拓扑(T64)和圆弦自洽性(TCSC)公理,源弦理论(YXT)超越了局部性、单一领域证明的认知局限。 本文利用“拓扑嵌入、算子重构、动力学系统化和自洽性裁决”这一核心四步法,实现了七大难题的全局统一与降维简化。它将四维时空中互不相干的数学与物理命题转化为高维拓扑流形的内在结构约束,从而将所有目标猜想框架化为宇宙本体自洽存续的必然推论。 本文系统地阐明了该方法论的范式意义,给出了六个未解难题(包括黎曼猜想、P对NP问题、杨-米尔斯理论等)的高维拓扑降维逻辑,并将已获证的庞加莱猜想作为该元框架在低维空间的一项历史性初步验证。此外,本文还制定了三个明确的可证伪标准,以确保该范式在波普尔科学体系内的经验可检验性。本研究表明,源弦拓扑范式提供了一个严谨的大一统证明基础设施,为整合当代数理科学中碎片化的公理架构提供了一条可行的本体论路径。
Zhenyuan Acharya (Sun,) studied this question.