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首页> 外文期刊>Results in Physics >Nano-capacitor-like model using light trapping in plasmonic island embedded microring system
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Nano-capacitor-like model using light trapping in plasmonic island embedded microring system

机译:等离子体岛嵌入式微环系统中利用光捕获的类纳米电容器模型

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摘要

We have proposed the convincing electro-optic circuit for long life-time electron mobility emission. Light a monochromatic source is utilized as input into the circuit via the input port and trapped within the plasmonic island. It is a formed-like capacitor structure formed by the silicon-graphene-gold materials which are stacked layers. All circuit port ends have added the TiO2to form the reflectors. By selecting the suitable parameters, the fraction of the output power emission can be controlled at the add port, from which it can be successively pumping and trapped(stored) within the plasmonic island. The system energy saturation can be released by squeezing light behavior, therefore, the system is always balanced due to the successive pumping process. The results obtained of the single cell(circuit) have shown that the charging time and discharging times of the nano-capacitor-like of ~2 to 3?s and 1000?h are achieved. This can be applied to long life mobility emission(discharge) of the capacity-like device. The mobility storage time within the island is 14,000?h, with the electron mobility of~3.0 × 10?7cm2??Vs?1is obtained.
机译:我们已经提出了令人信服的电光电路,用于长寿命的电子迁移率发射。单色光源被用作通过输入端口输入电路并被困在等离激元岛中的光。它是由堆叠的硅-石墨烯-金材料形成的成型电容器结构。所有电路端口端都添加了TiO2以形成反射器。通过选择合适的参数,可以在加法端口上控制输出功率发射的比例,从该端口可以连续地将其泵浦并捕获(存储)在等离激元岛内。可以通过压缩光的行为来释放系统能量饱和,因此,由于连续的泵浦过程,系统始终处于平衡状态。单电池(电路)的结果表明,纳米电容器样的充电时间和放电时间分别达到〜2〜3?s和1000?h。这可以应用于电容式装置的长寿命迁移率发射(放电)。岛内的迁移率存储时间为14,000?h,电子迁移率约为3.0×10?7cm2?Vs?1。

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