1.3μm ill -氮化物纳米线单片二极管激光器和基于(001)硅的光子集成电路

P. Bhattacharya, A. Hazari
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引用次数: 0

摘要

近年来,氮化镓基纳米线和纳米线异质结构因其独特的材料性能以及利用其实现独特和有用的器件的潜力而受到广泛关注。它们可以外延生长在各种衬底上,包括技术上重要的(001)Si[1]。最重要的是,纳米线中扩展缺陷的极化场和密度比平面异质结构中的缺陷小。纳米线壁上的表面态密度也很小,约为103cm−2。纳米线阵列的面积密度可以在109 ~ 1011cm−2范围内变化。因此,这些纳米线提出了一种新的基于iii -氮化物的技术,可以实现光源在“绿隙”和更远的地方发射。纳米线中的主动发光区域通常是InGaN盘,其组成可以改变以调整发射波长。详细的研究表明,在InGaN盘区形成了单个量子点[2]。
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1.3μm Ill-nitride nanowire monolithic diode lasers and photonic integrated circuits on (001) silicon
There has been a great deal of attention paid recently to GaN-based nanowires and nanowire heterostructures for their unique materials properties and the potential to realize unique and useful devices with them. They can be epitaxially grown on a variety of substrates, including the technologically important (001)Si [1]. Most importantly, the polarization field and density of extended defects in the nanowires are smaller than those in planar heterostructures. The density of surface states on the nanowire walls is also small and ∼103cm−2. The area density of the nanowire arrays can be varied in the range of 109-1011cm−2. These nanowires have therefore presented a new III-nitride based technology which allows the realization of light sources emitting in the ‘green gap’ and beyond. The active light-emitting region in the nanowires are usually InGaN disks, whose composition can be varied to tune the emission wavelength. Detailed studies have revealed that a single quantum dot is formed in the InGaN disk region [2].
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