The prevailing ΛCDM cosmology and stellar nucleosynthesis theories assume large-scale cosmic isotropy, and interpret celestial body formation and element transmutation merely through local gravitational, strong, weak, and electromagnetic interactions. However, they fail to fundamentally explain the large-scale stratified spatial distribution of heavy elements, superheavy atomic nuclei, and black holes in the Universe, lacking a coupling mechanism between macroscopic spatial topology and microscopic matter evolution. Based on the subelement circulation hydrodynamic theory of particle monism, this paper abandons the traditional framework of a single matter source and unidirectional dissipation, and establishes a coupled evolutionary model covering cosmic latitude polar angle–spherical shear intensity–nuclear stacking limit–element abundance–compact object formation. The core model logic states that the Universe possesses a natural north-south axial closed circulation field; as the latitude decreases toward the equator, the fluid hedging effect intensifies and the local vacuum shear strength increases monotonically. Any cosmic region can generate hierarchical matter locally relying on indigenous shear conditions, achieving dynamic equilibrium between matter condensation and dissociation without a single primordial source or exclusive dissipation sink. This study derives a quantitative latitude–maximum atomic number equation and an exponential decay model of element abundance, systematically interpreting the uniform global distribution of light elements and the equatorial enrichment of heavy and superheavy elements. Furthermore, the model is strictly proven to be self-consistent with the entropy increase principle, Lorentz invariance of special relativity, and quantum chromodynamics (QCD). Multiple quantitatively testable astronomical predictions are proposed for observational verification. This research fills the theoretical gaps caused by the isotropic assumption in standard cosmology, constructs a unified evolutionary framework connecting macroscopic cosmic topology and microscopic material structures, and provides a novel theoretical paradigm for understanding the large-scale cosmic chemical anisotropy of matter distribution.
S Hücümenog ̆ lu (Fri,) studied this question.