丑式方程V1.0框架下基本粒子物质记忆模式的全局校准

Based on the meta - axioms of matter memory proposed by Zhao Fu - Tao, this paper accomplishes the first global calibration of the memory mode strengths of electrons, protons, and neutrons within the unified framework of the Chou - Equation V1.0. The calibration process strictly adheres to the principle of "prediction prior to experiment", relying solely on publicly available particle data (masses, magnetic moments) and known physical scales (the proton - crushing threshold of approximately 1 GeV). By simultaneously considering the electron - proton mass ratio and the stability constraint, we determine the global vacuum coupling decay exponent β≈1.76 and the electron memory strength ratio M0​/Mp​≈2.0×104. Using the proton as a reference, we derive a strict algebraic constraint between the core parameters of the framework (the survival instinct I0​ and the crushing coefficient κ), achieving theoretical self - consistency. Furthermore, through the ratio of the anomalous magnetic moments of the proton and the neutron (Δgn​/Δgp​≈−1.067), under the topological correlation hypothesis, we determine the neutron memory strength ratio γ=Mn​/Mp​≈−1.067. Thus, we obtain a complete and self - consistent set of memory parameters for elementary particles. Based on this calibration, the model provides a clear testable prediction: the electron has an internal structure, and its theoretical crushing threshold is approximately 20 TeV (reasonable range 15 - 50 TeV). All calibration steps, data, and derivations are fully disclosed in an open - source knowledge base to ensure complete reproducibility.