Three-dimensional silicon-germanium nanostructures for CMOS compatible light emitters and optical interconnects

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Abstract

Three-dimensional SiGe nanostructures grown on Si (SiGe/Si) using molecular beam epitaxy or low-pressure chemical vapor deposition exhibit photoluminescence and electroluminescence in the important spectral range of 1.3-1.6 μm. At a high level of photoexcitation or carrier injection, thermal quenching of the luminescence intensity is suppressed and the previously confirmed type-II energy band alignment at Si/SiGe cluster heterointerfaces no longer controls radiative carrier recombination. Instead, a recently proposed dynamic type-I energy band alignment is found to be responsible for the strong decrease in carrier radiative lifetime and further increase in the luminescence quantum efficiency. Copyright © 2008 L. Tsybeskov et al.

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Tsybeskov, L., Lee, E. K., Chang, H. Y., Kamenev, B. V., Lockwood, D. J., Baribeau, J. M., & Kamins, T. I. (2008). Three-dimensional silicon-germanium nanostructures for CMOS compatible light emitters and optical interconnects. Advances in Optical Technologies. https://doi.org/10.1155/2008/218032

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