Processing and Communication on Quantum Ensemble Transductions and Physical Observables
Sergey Edward Lyshevski, Ivan Puchades · 2020
We investigate quantum-enabled processing on detectable physical variables in quantum photo-electronic devices and assemblies. The measurable photon-electron transductions can be used to accomplish dynamically-reconfigurable seamless optical communication, robust processing and interfacing. We investigate quantum processing on quantum ensemble. Integrated micro-optoelectronic solutions and control schemes should support physical implementation of data processing solutions and schemes. Performing fundamental studies and examining scalable technologies, processing estimates and device-level solutions are reported. We consider controlled photon emission and absorption by electrostatically-regulated semiconductor quantum dots, photon detection, photon propagation in optical waveguides, and, photon-electron transductions. Some of these schemes are tested conducting low-fidelity studies. The electrostatically controlled silicon nitride waveguides with quantum dots are fabricated and characterized. We report engineering solutions in silicon micro-optoelectronics, as well as in quantum-enabled processing and communication schemes. Quantum mechanics, microelectronics, nonlinear optics and microfabrication are applied to conduct fundamental, analytic, numeric and experimental studies. The energy switching, transduction frequency, channel capacity and measurement estimates are derived.