Effect of Ordering of Displacement Fields Operators of Separate Quantum Dots, Elliptical Cylinders on the Deformation Field of Coupled Fractal Structures

Higgs Boson and Higgs Field in Fractal Models of the Universe: Active Femtoobjects, New Hubble Constants, Solar Wind, Heliopause

“…Model attoobjects with sizes of the order of the classical proton radius r 0 p describe the internal structure of nucleons (the presence of a core and scalar, vector clouds [12]). In fractal quantum systems (such as atomic and muon hydrogen), model attoobjects can lead to a change in the main parameters (1), anomalies in magnetic properties (2) and stochastic behavior [8] of model femtoobjects and leptons. In our model, the main parameters of the model femtoobject are related to the resting energy of the Higgs boson E H 0 , the main parameter n A0 for black holes [1,2], the number of quanta n F , n F of the fermionic field (n F + n F = 1) from the anisotropic model (taking into account the presence of the Higgs field) [3], and the cosmological redshift z μ [1,2], the effective susceptibility χ 0 in the absence of the Higgs field [4][5][6][7] and the effective number N in the Dicke superradiation model [2].…”

“…In this case, a transition to the description of atomic defects, active nanoobjects, and neutrinos is possible [4,5]. Active objects in fractal quantum systems have their own characteristic features of behavior [6][7][8]. In this case, superradiative states of active objects may appear [7].…”

“…In this case, superradiative states of active objects may appear [7]. When describing various physical fields (gravitational, electromagnetic, neutrino, deformation, stress) in fractal quantum systems, it is necessary to take into account the ordering effect of the corresponding operators [8]. Coherent laser spectroscopy methods and the modern development of nanotechnology make it possible to study active femtoobjects (protons, neutrons, atomic and muon hydrogens, leptons) in fractal quantum systems.…”