The Super particles hypothesis

Abstract:This paper proposes a novel physical hypothesis suggesting that Uranium (Z=92) and the subsequent transuranic elements should be classified as stable-unstable superparticles rather than traditional chemical elements. Based on the Fractal S-Level System, the author introduces the Density Ratio (K) — the ratio of the internal particle triad (core) density to the atomic shell volume.The study demonstrates that at the S=1000 level (Uranium), the density ratio reaches K=1, signifying a "structural collapse" where the internal energy node (core) fully occupies the atomic shell. This state marks the limit of stable material form, where chemical properties (bonding) are superseded by particle physics (decay and resonance).The paper identifies two critical transition zones:Lanthanides (S=300, K=3.3): The "Boundary of Chemistry," where structural individualization begins to fail due to extreme compression.Actinides (S=1000, K=1): The "Boundary of Physics," where the shell and core merge, transforming the atom into a superparticle.The practical utility of this model lies in a new approach to geological mineral clustering (predicting deposits through triad resonance) and materials science (engineering alloys via K-ratio matching). The hypothesis concludes that the 108 elements of the periodic table represent the complete fractal set of material forms, beyond which matter exists exclusively as high-energy particle nodes.