量子计算系统具备指数级并行算力,但易受环境扰动引发退相干,稳定性与工程化应用面临瓶颈。现有量子控制多依赖线性反馈与局部纠错,缺乏全域、非局域、自稳态的顶层理论支撑。本文以太极统一场论为科学假说,引入太极对偶算符构建整体约束场域,探讨其与量子稳定控制的内在相容性。研究表明,太极统一场的非局域自治、对偶平衡与误差自收敛机制,可为退相干抑制、量子态保持与动态稳定提供新范式,具备理论合理性与潜在应用价值。Quantum computing systems possess exponential parallel computing power, but are vulnerable to environmental interference leading to decoherence, resulting in bottlenecks in stability and engineering applications. Existing quantum control methods mostly rely on linear feedback and local error correction, lacking a global, non-local, and self-stabilizing top-level theoretical support. Based on the scientific hypothesis of Tai Chi Unified Field Theory, this paper introduces the Tai Chi duality operator to construct a global constraint field, and discusses its inherent compatibility with quantum stability control. Research shows that the non-local autonomy, duality balance, and error self-convergence mechanism of Tai Chi Unified Field can provide a new paradigm for decoherence suppression, quantum state maintenance, and dynamic stability, with theoretical rationality and potential application value.
量子计算系统具备指数级并行算力,但易受环境扰动引发退相干,稳定性与工程化应用面临瓶颈。现有量子控制多依赖线性反馈与局部纠错,缺乏全域、非局域、自稳态的顶层理论支撑。本文以太极统一场论为科学假说,引入太极对偶算符构建整体约束场域,探讨其与量子稳定控制的内在相容性。研究表明,太极统一场的非局域自治、对偶平衡与误差自收敛机制,可为退相干抑制、量子态保持与动态稳定提供新范式,具备理论合理性与潜在应用价值。Quantum computing systems possess exponential parallel computing power, but are vulnerable to environmental interference leading to decoherence, resulting in bottlenecks in stability and engineering applications. Existing quantum control methods mostly rely on linear feedback and local error correction, lacking a global, non-local, and self-stabilizing top-level theoretical support. Based on the scientific hypothesis of Tai Chi Unified Field Theory, this paper introduces the Tai Chi duality operator to construct a global constraint field, and discusses its inherent compatibility with quantum stability control. Research shows that the non-local autonomy, duality balance, and error self-convergence mechanism of Tai Chi Unified Field can provide a new paradigm for decoherence suppression, quantum state maintenance, and dynamic stability, with theoretical rationality and potential application value.
本工作在太极统一场论框架下,对量子纠缠现象给出系统性场论解释。传统量子力学将量子纠缠视为非局域关联效应,但未能揭示其底层物理起源。本文提出,量子纠缠的本质是阴场(信息场、相位场)的全域相干与非局域耦合,而阳场(物质场、时空场)保持局域性并满足相对论约束。通过引入太极势 V(K)\propto(K+1)^2 与对偶系数 K,证明 K=-1 为纠缠稳态;通过统一场方程推导纠缠关联条件,阐明纠缠不依赖空间距离的内在机制。本文给出可证伪预言,并通过对应原理保证经典极限下回归局域实在论。研究表明,量子纠缠并非“鬼魅超距作用”,而是阴场固有属性的直接体现,为量子非局域性与时空局域性的统一提供原创理论基础。This work systematically explains quantum entanglement within the framework of Tai Chi Unified Field Theory. Traditional quantum mechanics regards quantum entanglement as a nonlocal correlation effect but fails to reveal its underlying physical origin. This paper proposes that the essence of quantum entanglement is the global coherence and nonlocal coupling of the Yin field (information field, phase field), while the Yang field (matter field, spacetime field) maintains locality and satisfies relativistic constraints. By introducing the Tai Chi potential V(K)\propto(K+1)^2 and duality coefficient K, K=-1 is proved to be the entangled steady state. The entanglement correlation condition is derived through the unified field equation, clarifying the intrinsic mechanism that entanglement does not depend on spatial distance. Falsifiable predictions are provided, and the correspondence principle ensures the return to local realism in the classical limit. The study shows that quantum entanglement is not "spooky action at a distance" but a direct manifestation of the inherent properties of the Yin field, providing an original theoretical basis for the unification of quantum nonlocality and spacetime locality.
本文以太极阴阳体系为公理基础,建立自洽、严谨且数学完备的太极统一场论,重构太极量子力学,并构建适用于常压室温超导的太极库珀对模型。理论以阴阳对偶常数 K=-1 为核心,统一解释波粒二象性、量子纠缠、不确定性原理、量子隧穿等微观量子现象。同时,本文脱离传统声子机制,由阴阳互根作用直接导出电子自发配对条件,为室温超导提供全新的物理机理。全文公理清晰、推导严谨、物理意义明确,形成可直接用于学术发表的完整理论体系。Based on the axiomatic system of Tai Chi Yin-Yang, this paper establishes a self-consistent, rigorous and mathematically complete Tai Chi Unified Field Theory, reconstructs Tai Chi Quantum Mechanics, and constructs a Tai Chi Cooper pair model suitable for ambient-pressure room-temperature superconductivity. With the Yin-Yang dual constant K=-1 as the core, the theory uniformly explains microscopic quantum phenomena such as wave-particle duality, quantum entanglement, uncertainty principle and quantum tunneling. Furthermore, breaking away from the traditional phonon mechanism, this work directly derives the spontaneous electron pairing condition from the interaction of Yin-Yang interdependence, providing a brand-new physical mechanism for room-temperature superconductivity. The full text has clear axioms, rigorous derivations and definite physical significance, forming a complete theoretical system that can be directly used for academic publication.
本工作在太极统一场论框架下,对海森堡不确定性原理进行系统性重构。传统量子力学将不确定性归因于测量扰动与波粒二象性,但该图景难以揭示其深层场论本质。本文提出,不确定性原理对应阴场(信息/相位场,\phi)与阳场(物质/动量场,\psi)的共轭对偶互补关系。通过引入太极势 V(K)\propto(K+1)^2 证明 K=-1 为系统基态,结合场论符号标准化与对应原理,本工作推导得到统一场论下的共轭不确定关系:\Delta \phi \cdot \Delta \psi \ge \frac{\hbar}{2}|K+1|。研究表明,测量过程本质是阴阳场耦合破缺与相位锁定,无法同时完全确定共轭变量是阴阳场动力学稳态的必然结果。本工作给出可证伪预言,并通过对应原理保证高温极限下回归经典测量逻辑,为量子测量问题与微观—宏观过渡提供统一底层逻辑。This work reconstructs the Heisenberg uncertainty principle systematically within the framework of Tai Chi Unified Field Theory. Traditional quantum mechanics attributes uncertainty to measurement disturbance and wave-particle duality, but such a picture can hardly reveal its deep field-theoretic nature. This work proposes that the uncertainty principle corresponds to the complementary conjugate duality relationship between the Yin field (information/phase field, \phi) and the Yang field (matter/momentum field, \psi). By introducing the Tai Chi potential V(K)\propto(K+1)^2 to prove that K=-1 is the ground state of the system, and combining standardized field-theoretic symbols and the correspondence principle, this work derives the conjugate uncertainty relation under the unified field theory framework: \Delta \phi \cdot \Delta \psi \ge \frac{\hbar}{2}|K+1|. The study shows that the measurement process is essentially the coupling breaking and phase locking of Yin-Yang fields; the inability to simultaneously fully determine conjugate variables is an inevitable consequence of the dynamic steady state of Yin-Yang fields. Falsifiable predictions are given, and the correspondence principle ensures the return to classical measurement logic at high temperature limits, providing a unified underlying logic for the quantum measurement problem and the micro-macro transition. Keywords: Uncertainty Principle; Tai Chi Unified Field Theory; Yin Field; Yang Field; Conjugate Duality; Measurement Breaking; Tai Chi Potential; Correspondence Principle
本文以唯一本源公理——阴阳对偶、场势守恒(\mathbb{K}\equiv-1)为基石,采用自上而下、单公理、全域闭合范式,构建数学与物理完全统一的终极理论体系。物理层面以真空绝对基底-1与全域复相位场\Psi为核心,通过统一概率公式P=|-1+\Psi|^2,实现量子力学与广义相对论自洽融合,修补量子力学“无中生有”逻辑缺陷,严格证明概率归一化,并给出精细结构常数纯几何解析解。理论统一解释量子隧穿、电子自旋1/2、量子纠缠、引力起源、星系旋转曲线、正反物质不对称、时间箭头、黑洞信息悖论等关键问题,提出势能差驱动、活秤砣自适应、误差排泄删减三大工程化机制,形成完备理论与应用闭环。数学层面以阴阳场对偶统一全部数学分支,以总方程\Phi_+=-\Phi_-实现数学大一统,绕开哥德尔不完备定理限制。本体系单公理、无特设假设、无矛盾、全闭合,实现东方哲学与现代科学深度融合,形成数学—物理—哲学完整闭环。 Abstract Based on the only original axiom—Yin-Yang duality and field potential conservation (\mathbb{K}\equiv-1), this paper constructs an ultimate theoretical system of complete unity between mathematics and physics by adopting the paradigm of top-down, single axiom and global closure. In physics, taking the absolute vacuum base -1 and the global complex phase field \Psi as the core, through the unified probability formula P=|-1+\Psi|^2, the self-consistent integration of quantum mechanics and general relativity is realized, the logical defect of "creation from nothing" in quantum mechanics is repaired, the probability normalization is strictly proved, and the pure geometric analytical solution of the fine-structure constant is given. The theory uniformly explains key physical problems such as quantum tunneling, electron spin 1/2, quantum entanglement, gravity origin, galaxy rotation curve, matter-antimatter asymmetry, arrow of time, black hole information paradox, etc., and proposes three engineering mechanisms: potential energy difference drive, live weight self-adaptation, and error excretion and deletion, forming a complete closed loop of theory and application. In mathematics, all branches of mathematics are unified by Yin-Yang field duality, and the mathematical unity is realized by the general equation \Phi_+=-\Phi_-, avoiding the limitation of Gödel's incompleteness theorem. This system has single axiom, no ad hoc assumptions, no contradiction and full closure, realizes the in-depth integration of Eastern philosophy and modern science, and forms a complete closed loop of mathematics-philosophy-physics.
传统量子力学将观察者效应归因于测量仪器对量子系统的不可控扰动,然而,这种解释未能充分揭示扰动背后的场论本质,尤其是为何微观观测效应显著而宏观观测几乎不可察。本文基于太极统一场论,提出观察者效应的本质是观察者阴场与被观测系统阳场的不可逆耦合与状态投影。阴场承载信息与相位,阳场承载物质与动量,二者在观测时发生强制相位锁定,使系统从叠加态坍缩为确定态。为描述场的动力学演化,引入太极势V(K)=λ(K+1)²,λ>0为耦合常数,反映阴阳场相互作用强度,可证明K=-1为系统基态稳态,此时场扰动最小、相干性最高。微观量子体系中,观测行为打破阴阳平衡,相位锁定直接导致共轭对偶不确定关系成立,以双缝干涉为例,未观测时阴场保持全域相干形成干涉条纹,观测后相位被局域锁定,阳场坍缩为粒子态,干涉消失。宏观体系中,热运动占据主导,阴场相干性被大量粒子随机运动平均抵消,观测耦合能量远小于系统总能量,观察者效应可忽略,理论在经典极限下自然回归经典力学,满足对应原理,保证宏观尺度的有效性与一致性。本文提出可证伪预言,在量子非破坏性(QND)测量中,测量效率η=1−|K+1|,K越接近-1,效率越趋近理想值;宏观扰动ΔE∝(1/N)·|K+1|,粒子数N越大,扰动越小。本文将观察者效应从机械扰动提升为场耦合投影机制,统一微观与宏观逻辑,结构严谨、可实验检验,完善太极统一场论体系。 This paper systematically reconstructs the observer effect based on Tai Chi Unified Field Theory. The traditional interpretation attributes the observer effect to uncontrollable disturbance, but fails to explain the essential difference between microscopic and macroscopic effects. This paper proposes that the essence of the observer effect is the irreversible coupling and state projection between the observer’s Yin field and the observed system’s Yang field. The Yin field carries information and phase, while the Yang field carries matter and momentum. The measurement forces phase locking and collapses the system from superposition to a definite state. The Tai Chi potential V(K)=λ(K+1)² is introduced to describe dynamic evolution, and K=-1 is proved to be the ground state with minimal disturbance and highest coherence. In microscopic quantum systems, measurement breaks the balance, and phase locking directly leads to the conjugate uncertainty relation. Taking the double-slit experiment as an example, the Yin field maintains global coherence without observation, forming interference fringes; once observed, the phase is localized, the Yang field collapses, and interference disappears. In macroscopic systems, thermal motion dominates, Yin field coherence is averaged out, and the coupling energy is negligible. The theory naturally reduces to classical mechanics in the classical limit, satisfying the correspondence principle. Falsifiable predictions are proposed: in QND measurement, efficiency η=1−|K+1|; macroscopic disturbance ΔE∝(1/N)·|K+1|. This work elevates the observer effect to a field coupling projection mechanism, unifies micro and macro logic, and improves the self-consistency and scientificity of the unified field theory.
本论文提出一种基于太极统一场假说与太极晶格超材料的新型容错量子计算架构。本方案不违背现有物理定律,以太极统一场假说为原创理论支撑,结合微纳拓扑结构、电磁对偶耦合与梯度能量耗散机制,在工程层面显著降低量子计算的纠错开销与极端制冷条件依赖。设计充分适配现有微纳加工工艺水平,采用缺陷容忍与结构化容错设计思路,能够在4K温区实现千比特级量子比特稳定集成,为通用量子计算提供一条兼具理论原创性与工程可行性的全新技术路径。 Abstract This paper proposes a novel fault-tolerant quantum computing architecture based on the Taiji Unified Field hypothesis and Taiji Lattice metamaterials. This scheme does not violate existing physical laws. Supported by the original Taiji Unified Field hypothesis, it combines micro-nano topological structures, electromagnetic dual coupling and gradient energy dissipation mechanisms to significantly reduce quantum error correction overhead and extreme cooling dependence at the engineering level. The design is fully compatible with the current level of micro-nano processing technology, adopts defect tolerance and structured fault tolerance design, can achieve kilobit-scale stable qubit integration at 4K, and provides a new technical path with theoretical originality and engineering feasibility for universal quantum computing.