无电子阻挡层GaN/AlInN/GaN纳米线深紫外LED的设计与性能分析

Samadrita Das, T. Lenka, F. Talukdar, G. Crupi, H. Nguyen
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引用次数: 1

摘要

我们报道了一种新型的无电子阻挡层(EBL)的AIlnN纳米线发光二极管(LED),其单量子阱(SQW)工作在深紫外(DUV)波长区域(sub-250 nm)。我们系统地分析了Atlas TCAD的结果,并将其与模拟的AIGaN纳米线DUV LED进行了比较。从模拟结果来看,由于大量的电子泄漏,在AIGaN LED中观察到明显的效率下降。然而,与相似发射波长的AIGaN纳米线DUV LED相比,本文提出的(SQW)基于AIlnN的光发射器具有更高的内部量子效率,且高达1500 a /cm2的电流密度和高输出光功率。进一步的研究表明,由于有源区域存在非均匀载流子分布,当有源区域存在多个量子波时,AIlnN DUV纳米线LED的性能会下降。这项研究为设计一种新型的高性能AIlnN纳米线DUV LED提供了重要的见解,取代了目前使用的AIGaN半导体。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Design and Performance Analysis of Electron Blocking Layer free GaN/AlInN/GaN Nanowire Deep-Ultraviolet LED
We report on the illustration of the novel electron blocking layer (EBL) free AIlnN nanowire light-emitting diodes (LED) with a single-quantum well (SQW) operating in the deep ultraviolet (DUV) wavelength region (sub-250 nm). We have systematically analyzed the results using Atlas TCAD and compared them with simulated AIGaN nanowire DUV LED. From the simulation results, a significant efficiency droop was observed in AIGaN LED, attributed to the significant electron leakage. However, compared to AIGaN nanowire DUV LED at a similar emission wavelength, the proposed (SQW) AIlnN- based light-emitter offers higher internal quantum efficiency without droop up to the current density of 1500 A/cm2 and high output optical power. Further research shows that the performance of the AIlnN DUV nanowire LED reduces with multiple QWs in the active region due to the presence of the non- uniform carrier distribution in the active region. This study provides important insights into the design of a new type of high- performance AIlnN nanowire DUV LED, by replacing currently used AIGaN semiconductors.
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