Redefining the Hierarchy of Forces via an Electron-Calibrated Structural Axis

This paper presents a novel unified structural framework, known as Yuuki Theory (Yuuki Collapse Theory), which addresses the "hierarchy problem" of fundamental forces by adopting the electron mass as a universal calibration unit. Instead of treating fundamental interactions as independent forces with unexplained coupling strengths, this theory aligns physical systems—from quarks to neutron stars—along a single, monotonic Structural Axis calibrated by the electron. Key Concepts of the Theory Universal Calibration Unit: Defines a minimal structural mass unit m_0 anchored to the electron mass (m_e = \sqrt{2} \cdot m_0), serving as a universal "ruler" for all physical structures. Structural Interpretation of Forces: Electromagnetism is the baseline structural regime defined by the electron. Strong Interaction emerges as a "circulatory structure" that stabilizes composite mass, with quark masses following generational patterns relative to m_0. Weak Interaction acts as a transitional layer connecting stable structural regimes. Gravity is reinterpreted as a "cumulative geometric effect" of mass distributed across structural layers rather than a microscopic force. Cosmic Structural Boundary: The theory predicts a finite structural limit to the universe where electron-based normalization fails, which remains consistent with current Cosmic Microwave Background (CMB) observations. Efficiency and Minimalism: The framework requires no new particles, no new free parameters, and no fine-tuning of coupling constants, reframing the force hierarchy as a problem of structural normalization. Conclusion Yuuki Theory shifts the paradigm of physics from dynamical interactions to structural alignment. By understanding the electron not just as a particle but as the fundamental unit of physical measurement, it provides a continuous and unified mass hierarchy that spans the subatomic to the astrophysical scale.