利用不同SiO2掩模进行光子集成的量子阱混合中的带隙波长位移

Jieun Lee, Y. Yamahara, M. Futami, T. Shindo, T. Amemiya, N. Nishiyama, S. Arai
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引用次数: 1

摘要

作为半导体膜结构的一种光子集成方法,通过比较有/无SiO2掩膜两段的光致发光峰波长移,研究了二氧化氧溅射SiO2掩膜的量子阱混合(QWI)过程。结果表明,在90 μm的瞬态区中,获得了80 nm (47 meV)的大带隙波长差。考虑到快速热退火(RTA)过程中沿掩蔽区和窗口区的温度梯度,我们在形成o2溅射SiO2掩模图案后,在整个表面上沉积CVD SiO2(其空位比o2溅射SiO2小,因此带隙波长位移较小),并成功地将瞬态区长度减小到小于5 μm。
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Bandgap wavelength shift in quantum well intermixing using different SiO2 masks for photonic integration
As a photonic integration method of semiconductor membrane structure, quantum-well-intermixing (QWI) process using O2-sputtered SiO2 mask was investigated by comparing the photoluminescence peak wavelength shift between two sections with/without the SiO2 mask. As the result, a large bandgap wavelength difference of 80 nm (47 meV) was obtained while quite large transient region (90 μm) was observed. Since this fact was considered to be attributed to the temperature gradient along the masked and window regions during the rapid thermal annealing (RTA) process, we deposited CVD SiO2 (which has smaller vacancies than O2-sputtered SiO2 hence the bandgap wavelength shift is smaller) on the entire surface after forming O2-sputtered SiO2 mask pattern and successfully reduced the transient region length to less than 5 μm.
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