Resonance in ESS Energy Storage Systems: Sand oval and structural memory codes
DOI:
https://doi.org/10.66778/RM.v09n02.02Keywords:
Modern physics, symmetrical compensation, waves, sand-based thermal energy storage systems (SSTES)Abstract
The objective of the present study is to propose a structure to model the stages of a complex physical system and a technique for the characterization of renewable energy collection and storage systems, the case study being a sand-based seasonal thermal energy storage system SSTES, using concepts from modern physics and waves in engineering applications. The method comprises the identification of the correspondence of the LFSR convolution operator (linear feedback shift register circuit) and the direct relationship through the interpretation of the system dynamics. A set of self-similar equations is obtained in stages, and the harmonic oscillator model is applied to obtain the coefficient matrix of the thermodynamic system with flow line feedback and wave interaction of the system, to improve efficiency by 61.8 %. on the efficiency of the sand battery. Managing to conclude the importance of the comprehensive analysis of the stages of the system, with contributions of compensation of interference patterns, optimization of wave trajectories in kinetic projective geometry, bistable systems, resonance and constructive geometry of the potential energy system.
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