Development of Theory and Experiment in the Field Of Sensor-Actuator Quantum Technologies of Biomimetic Materials
УДК 538.9:539.21
Abstract
The review analyzes the problem of a unified approach to experimental and theoretical descriptions of parallel relationships in attosecond reactions of subatomic quasiparticles and femtosecond transformations at the atomic scale in biomimetic materials. Solutions to the problem appeared on the brink of the 2020s, when synchrotron-generated attosecond single-period photons enabled studying their influence on subatomic quantum dynamics. They paved the way for quantum technologies to control attosecond dynamics of electron pairs and electrons entangled with single-period photons. The considered solutions of the three main problems provide real prospects for development of quantum nanoelectromechanical sensor-actuator self-assembly and self-organization technologies for biomimetic materials, starting from the attosecond-subatomic scale and ending with femtosecond atomic processes. The significance and relevance of building quantum physical chemistry models and performing computer predictions of hierarchical control system mechanisms for quantum technologies are discussed and considered at the subatomic, atomic, and at higher nano-, micro-, and mesoscale structure levels of biomimetic materials.
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