This theoretical framework constructs a seven-level material structure spectrum, indicating unified principles of matter, energy, and interactions.
This paper, as the second in the "Mathematical Essence of the Universe" series, aims to construct a complete and self-consistent structural model of the material world, building on the mathematical principles and the Qi foundation established in Part 1. We propose a seven-level material structure spectrum: starting from the most fundamental Qi (Level 1), through successive levels of "encapsulation" and "self-organization", we sequentially form Qi entangled pairs (Level 2), photons (Level 3), massive particles (Level 4), atoms and molecules (Level 5), macroscopic condensed matter and celestial bodies (Level 6), and finally, under massive gravitational collapse, the return to multi-layer recursively nested shells of black holes (Level 7). Each level contains further refined recursive nesting (e.g., electrons have 11 layers, protons about 20 layers; and within a level, recursion from light nuclei to heavy nuclei, such as from hydrogen nucleus to uranium nucleus). Here "level" marks the key nodes where physical form undergoes a qualitative change, not a count of recursive layers. We elaborate in detail the structural characteristics, formation mechanisms, and physical correspondences of each level. Photons are interpreted as composite systems comprising a core planar crystal cluster and a surrounding cloud of Qi crystal clusters. The core planar crystal cluster is a two-dimensional recursive nested structure of Qi entangled pairs, possibly composed of multiple planar crystal clusters through planar lattices. Its surface is decorated with several golden spiral arms (the number of arms increases with energy level); the crystal cluster cloud provides quasi-continuity of the energy spectrum. Massive particles (electrons, protons, neutrons, etc.) are interpreted as three-dimensional recursive nested structures formed when the photon structure undergoes a dimensional upgrade phase transition under specific high-energy conditions (electrons have 11 layers, protons about 20 layers). From this we rigorously derive the electron rest mass m_e c^2 = (1/2) Φ⁻¹¹ E_P, the origin of electric charge, spin 1/2 (stemming from Möbius strip topology), and the ability to host excitation modes. Atoms and molecules are formed by massive particles through electromagnetic forces; their internal recursive structure is determined jointly by the proton-neutron lattice inside the nucleus and the electron cloud. The proton-neutron lattice follows the golden ratio recursion (N_k = floor(Φ Z_k)), thereby explaining the periodic law of elements and isotope stability. Macroscopic condensed matter and celestial bodies (planets, stars, galaxies) are recursive aggregations of atoms and molecules, whose properties are uniformly described by golden-ratio-governed recursive nesting laws. Black holes are interpreted as multi-layer concentric quasicrystal shells formed by recursive nesting of individual Qi (two-dimensional membrane curled structures of individual Qi), with entropy-area relation arising from the geometric sum of the areas of the shells. Based on this spectrum, we accomplish first-principle derivations of two key fundamental constants: the fine-structure constant α = (2π/7) Φ¹⁰ ≈ 1/137.048, and the electron mass m_e c^2 = (1/2) Φ⁻¹¹ E_P ≈ 0.511 MeV, in excellent agreement with experimental values. These derivations involve no adjustable parameters; they are determined entirely by the golden ratio Φ and Planck units, demonstrating the powerful explanatory and predictive capability of the theory. The hierarchical model constructed in this paper provides a unified and parsimonious framework for understanding the properties of elementary particles, the origin of interactions, and the relation between matter and spacetime, laying the foundation for subsequent exploration of the nature of gravity and cosmic evolution. A Chinese version of this paper is also included in the uploaded files.
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Lin Hao (2026) studied this question.
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