低电流密度下InGaN/ gan基微led的电子阻挡层改进载流子约束

C. P. Singh, K. Ghosh
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引用次数: 0

摘要

提出了一种工程化的电子阻挡层结构,以缓解InGaN/GaN多量子阱微led在低电流密度(@ 1A/cm2)下严重的电子泄漏问题。模拟结果表明,与参考结构(样品a)相比,p区电子浓度泄漏水平大幅降低了约1016倍,并提高了空穴注入效率@ 1 a /cm2。结果表明,与样品a相比,内部量子效率提高了1.4倍,输入工作电压降低了50%,达到1 a /cm2。此外,与样品A相比,我们提出的结构的效率下降从45%减少到10% @ 200 A/cm2。
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Improved Carrier Confinement With Engineered Electron Blocking Layer in InGaN/GaN-Based Micro-LED at a Lower Current Density
An engineered electron blocking layer structure has been proposed to alleviate the significant electron leakage problem in InGaN/GaN multiple quantum well based micro-LED at lower current density (@ 1A/cm2). The simulation results show that the level of electron concentration leakage in the p-region is drastically reduced by ~ 1016times compared to a reference structure (Sample A), added with improved hole injection efficiency @ 1 A/cm2. As a result, the internal quantum efficiency is enhanced by ~1.4 times with a 50% reduction in input operating voltage compared to Sample A to reach 1 A/cm2. In addition, the efficiency droop in our proposed structure is reduced from 45% to 10% @ 200 A/cm2 compared to Sample A.
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