Through a preonic quasi-crystalline quark model, resulted as Bose-Einstein condensate of gammons: γ * = (e + e-) and by a pre-quantum cold genesis theory of matter and fields, which predicted the existence of a preon z 0 ≈ 34 m e experimentally evidenced in 2015, the elementary particles genesis is explained by the cold genesis of two preonic bosons with hexagonal symmetry: z π = 7z 0 ; z 2 = 4z 0 , which explains also the stability of quarks, by a mechanism with a first step of z * /(q ± /q 0) *-pre-cluster forming by magnetic interaction and a second step of z/(q ± /q 0)-collapsed cluster forming , with the aid of magnetic confinement, with z = (z 0 , z 2 , z π) and (q ± /q 0)-quark or pseudo-quark, resulting some predictions for bosonic dark matter constituents and for multi-quark particles of cold genesis, such as: 2450 m e ; 2685.4 m e tetra-quark; 3063.8 m e pentaquark; 2720 m e , 3672.4 m e hexa-quark; 3329 m e , 4762.2 m e hepta-quark.
There are presented briefly the main theoretic models of the theory developed by author in the book: “The cold Genesis of Matter and Fields” (Ed. Science PG, 2015), which argues the cold genesis of elementary particles in a very strong magnetic field, comparable to those of a magnetar or a gravistar. The elementary particles are explained by a quasi-crystalline model of quark , resulted as Bose-Einstein condensate of gammons considered as N pairs of quasi-electrons with diminished me -mass, e∗ -charge and μe∗(Γ∗μ) -magnetic moment. The nuclear force is explained as attraction of the nucleon’s impenetrable volume in the field of 2N- superposed magnetic moment vortices Γ∗μ(r) of another nucleon. The theory predicted the existence of a preon z0≈34 me with quasi-crystalline kernel, experimentally evidenced in 2015 but considered as X- boson of a fifth force, and the field-like nature of the dark energy.
The theoretic model explains the generating of heavy quarks and of heavy particles using the known quark s(strange) and two semi-light quarks: λ±(435 MeV) and v±(∼574 MeV) resulting from a cold genesis theory1 of astro-particles’ forming, (CGT), the masses of the quarks c• (charm) and b• (bottom) of the Standard Model but also the values used by de Souza: c = 1.7 GeV and b = 5 GeV, being re-obtained as tri-quark clusters in the form: [(qq¯)q]], by a simple de-excitation reaction, with the emission of a preonic boson obtained in CGT: z0 = 34me, respective: z2 = 4z0 and zμ = 6z0- for the quarks b• and b. A similar de-excitation reaction, with emission of a preonic boson zk = n⋅z0, (n = 1÷7), representing less than 2.7% from the particle’s mass, explains the experimentally obtained masses of heavy baryons and mesons and of some multi-quark particles, with discrepancy <1% generally. The heavy current quarks result by lighter current quarks with quasi-crystalline internal structure, with trigonal/hexagonal symmetry of preonic kernels of two preonic bosons: z2 = 4z0; zπ = 7z0, the top-quark resulting as: t = 17(bb¯) + b = (7x5)⋅m(b), with a kernel of regular hexagonal polyhedron form, given by kernels of b-quarks. The model is compatible with the generation model and explains the quarks pairs forming from relativist e−- e+ jets.
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