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Beznosyuk, S. А.; Zhukovskii, M. S.; Zhukovskaya, T. M.; Колесников, А. В.; Mezentsev, D. A.

doi:10.1023/a:1011326617732

Cited by 1 publication

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“…Among these transitions is the transition from a normally conducting state into a superconducting state due to fermion pairing and forming compound bosons in the system. A strong kinematic correlation in the configuration space ℜ is associated with the swarming mechanism [7]. Once a swarming pair of particles has been formed, a fragment of their configuration space reduces to the fractal configuration of the subspace of the collective swarm variable ξ: Introduction of the mesolevel in the concept of quantum-field chemistry (QFC) [3][4][5][6] is based on the assumption that the mesoprocesses are nonequivalent quantum-dimensional transformations of particles.…”

Section: Concept Of the Three-level Structure Of Nanomaterialsmentioning

confidence: 99%

Modeling of nanomaterial structure based on quantum-sized mesoparticles

2006

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Some fundamental aspects of the three-level (micro-, meso-, and macrolevel) scheme of modeling nanomaterial structure based on physics of quantum-sized mesoparticles are considered. Within the framework of quantum-field chemistry, the mesoparticles provide the basis for the construction of mesoquanta and macrodefects of nanomaterials. The microstructure is described by the method of quantum density topology, and the macrostructure is described by the method of thermal field dynamics of quantum-sized mesoparticles. Based on an analysis of quantum-sized nanoparticle motion, a strict mathematical classification of physical and chemical mesoprocesses in nanomaterials is given.

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