Dynamics of Glass Nano-Mesostructure in Creating New Materials

Relevance. Various attempts to explain crystallization of viscous silicate melts under varying steady-state conditions are driven by the growing need for new materials that enable the technological progress. It is currently accepted that the entire diversity of solid materials is encompassed by several phase compositions with the crystal structure obeying Fedorov space groups. The unit cell has parameters, translating which one can construct a fairly realistic picture of the crystal description, determined by the Gibbs phase. Experimental mineralogy data often diverge from traditional concepts, especially when describing the anomalous kinetics of diffusion and crystallization in glasses and glass-ceramics. Purpose : The development of a method for describing crystals with respect to forces of at least equal magnitude, which relat to internal properties and oscillatory modes. The holographic model of matter is proposed, in which these interactions can form their own coherent structures with their own types of resonant lattices. Methodology: The generalized approach is used to assess multi-scale processes and phenomena based on the experimental data and their analysis, taking into account well-known concepts of electrodynamics and wave mechanics. Research findings: The factors of structural order are determined by spatio-temporal coherence; a resonance model of dynamic structures that adequately describes the kinetics of lowenergy phase transitions is substantiated; materials are classified according to the nature of bonds and types of coherence. Value: For the first time, a model of spatially closed dynamic structures of real matter is developed to describe objects and interactions at the micro-, meso- and macro-levels as a set of auto-interference of a closed wave process. The interaction between areas of constructive interference is observed at frequencies of the main wave process, generating a spatial lattice of the next hierarchical level.