350 rub
Journal №3 for 2013 г.
Article in number:
The radiative properties of columnar semiconductor nanostructures
Keywords: nanocrystal material template porous anodic alumina photoluminescence nanoparticle second harmonic generation nonlinear microscopy
Authors:
E.D. Mishina, N.E. Sherstyuk, N.A. Ilyin, S.D. Lavrov, A.M. Buryakov, A.N. Belov, O.V. Pyatilova, Y. Nazarkina, M.V. Silibin, S.A. Gavrilov
Abstract:
Presently there is a strong trend toward miniaturization of photonic devices and circuits, including radiation sources, which enables the creation and integration monolithic photonic (optical) integrated circuits, increases the speed and reduce power consumption. The main structures, which are developed on the basis of miniaturized radiation sources are semiconductor nanostructures, and radiation sources are both on the basis of individual nanoparticles, and with the use of arrays of ordered nanostructures and metamaterials. On the basis of nanowires, for example, are made fibers, nanolasers converters to the second harmonic light detectors. In this paper ordered columnar nanostructures of semiconductor oxides and sulphides of metals of the second group have been studied by two-photon microscopy- spectroscopy method. In the "sore-shell" Cd-containing oxides and sulfides luminescence enhancement has been found arising due to plasmonic effects. In zinc oxide nanostructures a method is proposed for investigating the distribution of impurities on the cross section and length of the individual nanorod. The developed materials and techniques can be used in creation of semiconductor sensors and solar cells.
Pages: 44-53
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