First Review of Conductive Electrets for Low-Power Electronics

IF 1.6 Q3 ENGINEERING, ELECTRICAL & ELECTRONIC Journal of Low Power Electronics and Applications Pub Date : 2023-04-06 DOI:10.3390/jlpea13020025
D. Chung
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Abstract

This is the first review of conductive electrets (unpoled carbons and metals), which provide a new avenue for low-power electronics. The electret provides low DC voltage (μV) while allowing low DC current (μA) to pass through. Ohm’s Law is obeyed. The voltage scales with the inter-electrode distance. Series connection of multiple electret components provides a series voltage that equals the sum of the voltages of the components if there is no bending at the connection between the components. Otherwise, the series voltage is below the sum. Bending within the component also diminishes the voltage because of the polarization continuity decrease. The electret originates from the interaction of a tiny fraction of the carriers with the atoms. This interaction results in the charge in the electret. Dividing the electret charge by the electret voltage V’ provides the electret-based capacitance C’, which is higher than the permittivity-based capacitance (conventional) by a large number of orders of magnitude. The C’ governs the electret energy (1/2 C’V’2) and electret discharge time constant (RC’, where R = resistance), as shown for metals. The discharge time is promoted by a larger inter-electrode distance. The electret discharges occur upon short-circuiting and charge back upon subsequent opencircuiting. The discharge or charge of the electret amounts to the discharge or charge of C’.
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用于低功率电子器件的导电驻极体综述
这是对导电驻极体(非极性碳和金属)的首次回顾,它为低功耗电子器件提供了一条新的途径。驻极体提供低直流电压(μV),同时允许低直流电流(μA)通过。欧姆定律被遵守。电压随电极间距离的变化而变化。多个驻极体组件串联连接时,如果组件之间的连接处没有弯曲,则提供的串联电压等于组件电压之和。否则,串联电压低于总和。由于极化连续性的降低,元件内部的弯曲也降低了电压。驻极体起源于一小部分载流子与原子的相互作用。这种相互作用产生驻极体中的电荷。用驻极体电荷除以驻极体电压V '得到基于驻极体的电容C ',它比基于介电常数的电容(传统的)高出许多数量级。C '控制驻极体能量(1/ 2c ' v ' 2)和驻极体放电时间常数(RC ',其中R =电阻),如金属所示。电极间距越大,放电时间越长。驻极体放电发生在短路时,并在随后的开合时充电。驻极体的放电或充电等于C '的放电或充电。
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来源期刊
Journal of Low Power Electronics and Applications
Journal of Low Power Electronics and Applications Engineering-Electrical and Electronic Engineering
CiteScore
3.60
自引率
14.30%
发文量
57
审稿时长
11 weeks
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