Solvated electrons in polar liquids act as epsilon-near-zero materials in the terahertz range, with a concentration-tunable zero-crossing frequency producing characteristic pulse reshaping.
Dynamical Generation of Epsilon-Near-Zero Behaviour via Tracking and Feedback Control
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abstract
To date, epsilon near zero (ENZ) responses, characterized by an infinite phase velocity, are primarily achieved by applying a monochromatic light source to a tailored metamaterial. Here, we derive the equations for inducing a dynamically generated broadband ENZ response in a large class of many-body systems via tracking and feedback control. We further find that this response leads to a current-energy relationship identical to that of an ideal inductor. Using a Fermi-Hubbard model, we numerically confirm these results which have the potential to advance optical computation on the nanoscale.
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Solvated electrons in polar liquids as epsilon-near-zero materials tunable in the terahertz frequency range
Solvated electrons in polar liquids act as epsilon-near-zero materials in the terahertz range, with a concentration-tunable zero-crossing frequency producing characteristic pulse reshaping.