This research demonstrates the emergence of dark matter phenomena through gravitational self-interaction in the universe, indicating a new understanding of cosmology.
Key Points
The research aims to show that dark matter behavior can be explained by the self-interaction of gravity within the Quantum Geometrodynamics framework without invoking exotic particles.
Developed mathematical derivations using the Tikbon–Einstein field equations under static spherical symmetry.
Analyzed both galactic and cluster scales, including the Milky Way and Bulletin Cluster.
Utilized Gauss's law to derive a universal mass ceiling and compared findings with observed galaxy clusters.
Demonstrated that the Milky Way rotation curve prediction aligns closely with observed values, differing by only ~1%.
Showed that the Bullet Cluster mass ratio was adjusted closer to observed values through nonlinear interactions.
Derived a cosmological density parameter consistent with Planck mission results without any free parameters.