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量子力学从离散网络动力学中涌现 中文

明达 关

Published Jul 26, 2026• 0 citations
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DOI
10.5281/zenodo.21580303

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English We extend the Quantum Entanglement Mechanics (QEM) framework from 3D mirror lattices to d-dimensional hyperstacked lattices governed by a Σ/Δ opposition principle. Transport and stabilization are computed in the odd (Δ) sector, yielding sector-resolved propagation bounds, stability-island delay limits, and a coherence scaling \xi_d \approx \xi_1/\sqrt{d} when \sum c_k^2 is bounded. We also summarize a design-for-opposition SOP for scalable architectures (bipartite layout, loop-parity constraints, and π-inverters on odd-Σ paths). Series: Quantum Entanglement Mechanics (QEM), 2025. License: CC BY 4.0. ORCID: 0009-0005-5998-6024. 中文 本文将 QEM 从三维镜像格推广到 d 维超叠镜格。在 Σ/Δ 对立原则 下,仅在 Δ(奇)子空间计算传播与稳定界;得到分区分辨的传播上限、稳定岛时延上限,并在 \sum c_k^2 有界时给出相干缩放 \xi_d \approx \xi_1/\sqrt{d}。同时给出可扩展架构的对立化 SOP(二分图版图、闭环偶数 Σ、奇路径加 π 反相器)。 本作隶属于 QEM 系列(2025),许可 CC BY 4.0。

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QCDEQ V1.0 The Unified Master Equation for Quantum Constructive Stability 量子构造性稳定统一主程

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QCDEQ V1.0: The Unified Master Equation for Quantum Constructive Stability 中文:QCDEQ V1.0 量子构造性稳定统一主程 Trusted Timestamp (This Paper): TSA-01-20260301477475543 Author: Jiang Wenjia (Shenzhen, China) ORCID: 0009-0000-3850-7286 Correspondence: jiangwenjiaszx@outlook.com Governing Charter Timestamp: TSA-01-20260225423587571 (QCDEQ Permanent Charter) ABSTRACT This paper establishes QCDEQ V1.0 as the foundational framework for quantum constructive stability. It unifies three previously independent quantum pillars — QPCTT‑CW (quantum dynamics), QCENHE‑LEX (quantum conservation), and QGCVT‑10 (quantum convergence) — into a single master equation. The master equation governs the evolution of quantum density operators under topological constraints, central anchoring, and global conservation laws. QGCVT‑10 ensures genuine stability via ten‑step consecutive verification, filtering out transient fluctuations and quantum noise. Guided by the principle of Controlled Slip — slip to control, slip to stability — and the overarching methodology of governing microscopic chaos with macroscopic methods, QCDEQ V1.0 transforms quantum uncertainty from an obstacle into an engineered pathway. This work provides the immutable mathematical constitution for all subsequent QCDEQ developments. Keywords: Quantum Constructive Stability; QCDEQ V1.0; Unified Master Equation; Quantum Density Operator; QPCTT‑CW; Quantum Penta‑Cyclic Topology; QCENHE‑LEX; Quantum Central Anchoring; 9‑Grid Conservation; QGCVT‑10; Quantum Convergence Verification; Controlled Slip; Quantum Topological Control; Quantum Variational Evolution; Quantum State Stability; Quantum Constraint Execution; Quantum Zeno Effect; Deterministic Quantum Excitation; Quantum Chaos Annealing; Hilbert Space Regulation

•Mar 1, 2026•0 citations
We propose a falsifiable hypothesis: cognitive observation (attention, measurement, self-monitoring) is not neutral but alters the observed state, collapsing a vague superposition into a definite, typically negative state. Four testable corollaries are derived, each checkable by simple controlled comparison. 中文:本文提出可证伪假说——认知观测(关注/测量/自我监控)非中立,而是改变被观测状态的操作,将模糊叠加态坍缩为确定的、通常偏负面的状态;并推导四条可用简单对照实验检验的推论。
English We extend the Quantum Entanglement Mechanics (QEM) framework from 3D mirror lattices to d-dimensional hyperstacked lattices governed by a Σ/Δ opposition principle. Transport and stabilization are computed in the odd (Δ) sector, yielding sector-resolved propagation bounds, stability-island delay limits, and a coherence scaling \xi_d \approx \xi_1/\sqrt{d} when \sum c_k^2 is bounded. We also summarize a design-for-opposition SOP for scalable architectures (bipartite layout, loop-parity constraints, and π-inverters on odd-Σ paths). Series: Quantum Entanglement Mechanics (QEM), 2025. License: CC BY 4.0. ORCID: 0009-0005-5998-6024. 中文 本文将 QEM 从三维镜像格推广到 d 维超叠镜格。在 Σ/Δ 对立原则 下,仅在 Δ(奇)子空间计算传播与稳定界;得到分区分辨的传播上限、稳定岛时延上限,并在 \sum c_k^2 有界时给出相干缩放 \xi_d \approx \xi_1/\sqrt{d}。同时给出可扩展架构的对立化 SOP(二分图版图、闭环偶数 Σ、奇路径加 π 反相器)。 本作隶属于 QEM 系列(2025),许可 CC BY 4.0。
QCDEQ V1.0: The Unified Master Equation for Quantum Constructive Stability 中文:QCDEQ V1.0 量子构造性稳定统一主程 Trusted Timestamp (This Paper): TSA-01-20260301477475543 Author: Jiang Wenjia (Shenzhen, China) ORCID: 0009-0000-3850-7286 Correspondence: jiangwenjiaszx@outlook.com Governing Charter Timestamp: TSA-01-20260225423587571 (QCDEQ Permanent Charter) ABSTRACT This paper establishes QCDEQ V1.0 as the foundational framework for quantum constructive stability. It unifies three previously independent quantum pillars — QPCTT‑CW (quantum dynamics), QCENHE‑LEX (quantum conservation), and QGCVT‑10 (quantum convergence) — into a single master equation. The master equation governs the evolution of quantum density operators under topological constraints, central anchoring, and global conservation laws. QGCVT‑10 ensures genuine stability via ten‑step consecutive verification, filtering out transient fluctuations and quantum noise. Guided by the principle of Controlled Slip — slip to control, slip to stability — and the overarching methodology of governing microscopic chaos with macroscopic methods, QCDEQ V1.0 transforms quantum uncertainty from an obstacle into an engineered pathway. This work provides the immutable mathematical constitution for all subsequent QCDEQ developments. Keywords: Quantum Constructive Stability; QCDEQ V1.0; Unified Master Equation; Quantum Density Operator; QPCTT‑CW; Quantum Penta‑Cyclic Topology; QCENHE‑LEX; Quantum Central Anchoring; 9‑Grid Conservation; QGCVT‑10; Quantum Convergence Verification; Controlled Slip; Quantum Topological Control; Quantum Variational Evolution; Quantum State Stability; Quantum Constraint Execution; Quantum Zeno Effect; Deterministic Quantum Excitation; Quantum Chaos Annealing; Hilbert Space Regulation