太极统一场论:基于双母公式的全域时空观与物理大一统模型 Taiji Unified Field Theory: A Global Spacetime Perspective and Grand Unified Model Based on Dual Master Formulas
本文提出太极统一场论(Taiji Unified Field Theory),旨在解决广义相对论与量子力学之间的根本矛盾,并重构全域时空观。理论以“阴阳是对立统一的总代称”为底层公理,构建了A版(先天战略层,相反相成)与B版(后天战术层,相辅相成)双母公式。A版以“太极统一场 = 阴场 + 阳场”的定性框架统一了宏观引力与微观量子场。B版引入电磁力作为S型桥梁(太极鱼眼与开关),在序参量 k 约等于 -1 加减微扰的条件下实现定量计算。本文提出 k 值的三个全域区间:负一与一之间为现实显化宇宙,大于一为纯阳暴胀态,小于负一为纯阴量子引力态。基于此框架,本文严格推导了物理常数的跑动机制,并彻底重构了暗物质、暗能量及黑洞奇点的物理图景,为物理学大一统提供了一套逻辑自洽、可证伪的东方科学范式。 Abstract This paper proposes the Taiji Unified Field Theory, aiming to resolve the fundamental contradiction between general relativity and quantum mechanics and to reconstruct a global spacetime perspective. Based on the axiom that "Yin and Yang are general proxies for the unity of opposites," the theory constructs Dual Master Formulas: Version A (innate strategic layer, opposite complementation) and Version B (acquired tactical layer, mutual complementation). Version A unifies macroscopic gravity and microscopic quantum fields within a qualitative framework: "Taiji Unified Field = Yin Field + Yang Field." Version B introduces electromagnetic force as an S-shaped bridge (the Taiji fish-eye and switch), enabling quantitative calculation under the condition that the order parameter k is approximately -1 plus/minus a perturbation. This paper proposes three global intervals for k: between -1 and 1 is the manifested universe; greater than 1 is the pure-Yang inflation state; less than -1 is the pure-Yin quantum gravity state. Based on this framework, the running mechanisms of physical constants are rigorously derived, and the physical pictures of dark matter, dark energy, and black hole singularities are completely reconstructed, providing a logically self-consistent and falsifiable Eastern scientific paradigm for the grand unification of physics.
Authors
- Hechun Sun
Publication Details
- Journal
- Zenodo (CERN European Organization for Nuclear Research)
- Published
- 2026-11-10
- DOI
- https://doi.org/10.5281/zenodo.24113727
- Primary Topic
- Relativity and Gravitational Theory
- Type
- preprint