Generation of terahertz oscillations by supercooled in electric field superconductors. Preliminary results

T. Mishonov, A. P. Petkov, V. Danchev, A. Varonov
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Abstract

We present a short review of the history and contemporary computer simulations of the work of a electronic device for generation of electric oscillation by negative differential conductivity of a supercooled below the critical temperature superconductor. The superconductor is cooled below its critical temperature at a small constant electric field and this applied external voltage keeps the superconductor in normal state. In order to simulate the device, we use the formerly derived explicit analytical expressions for the conductivity of nanostructured superconductors supercooled below the critical temperature in electric field. Numerical analysis intended to alleviate the development of a device reveal that the negative differential conductivity region of the current-voltage characteristic leads to excitation of electric oscillations. This gives a hint that a hybrid device of nanostructured superconductors will work in terahertz frequencies. The study of layered high-Tc superconductors and electromagnetic waves emitted from them in space vacuum would be an important task for the future space technology.
电场超导体过冷产生太赫兹振荡。初步结果
我们简要回顾了历史和当代计算机模拟的电子设备的工作,以产生电振荡的负微分电导率的过冷低于临界温度的超导体。超导体在一个小的恒定电场下被冷却到临界温度以下,这个外加电压使超导体保持正常状态。为了模拟该器件,我们使用了先前导出的纳米结构超导体在电场中过冷至临界温度以下的电导率的显式解析表达式。数值分析表明,电流-电压特性的负微分电导率区会引起电振荡的激发。这暗示了纳米结构超导体的混合装置将在太赫兹频率下工作。研究层状高温超导体及其在空间真空中发射的电磁波将是未来空间技术的重要课题。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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