洛伦兹协变、对称性破缺与磁单极子禁闭的代数统一推导 T₃ Topological Elastic Field Theory An Algebraic Unified Derivation of Lorentz Covariance, Symmetry Breaking and Magnetic Monopole Confinement
摘要 本报告基于 T₃ 三维数代数(),统一解答了物理学中数个基础核心问题:洛伦兹协变的代数起源、时间之矢的成因、空间手性的产生机制,以及自然界不存在孤立磁单极子的底层缘由。 本报告严格证明:在纯双曲平直子空间(结合子 )下,T₃代数可以自然生成洛伦兹变换,对应宇宙无拓扑结状态下的完美对称;一旦系统演化形成大环套小环的嵌套拓扑结,双曲形变( 分量)被激活,结合子满足 ,空间各向同性发生破缺,进而生成手性。与此同时,结合子残差构成系统不可逆的拓扑记忆,这就是时间之矢的代数本源。 进一步,本报告将磁场定义为闭合拓扑环流流形。任何试图分离孤立磁荷(磁单极子)的操作,都会打断磁感线的闭合拓扑结构,迫使结合子趋于发散,在数学上需要无穷大能量。因此在T₃代数框架内,孤立磁单极子受到拓扑绝对禁闭。 Abstract Based on the T₃ three-dimensional number algebra , this report addresses several fundamental puzzles in physics: the algebraic origin of Lorentz covariance, the physical origin of the arrow of time, the emergence of spatial chirality, and the fundamental reason why isolated magnetic monopoles do not exist in nature. We rigorously prove that in the purely hyperbolic flat subspace with associator , the T₃ algebra naturally generates Lorentz transformations, corresponding to the perfect symmetry of the universe in knot-free topological states. Once the system evolves into nested topological knots (large loop enclosing small loop), hyperbolic deformation (the component) is activated, , spatial isotropy breaks and chirality emerges. Meanwhile, the residual associator constitutes irreversible topological memory of the system, which is the algebraic origin of the arrow of time. Furthermore, magnetic field is defined as a closed topological circulation manifold. Any attempt to separate an isolated magnetic charge (magnetic monopole) breaks the closed topology of magnetic field lines and forces the associator to diverge, requiring infinite energy mathematically. Therefore, isolated magnetic monopoles are topologically confined within the T₃ algebraic framework.
Authors
- Zhongqiang Liu
Publication Details
- Journal
- Zenodo (CERN European Organization for Nuclear Research)
- Published
- 2026-10-28
- DOI
- https://doi.org/10.5281/zenodo.23732960
- Primary Topic
- Relativity and Gravitational Theory
- Type
- preprint