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Registration Number

0220U101720, 0118U006128 , R & D reports

Title

New photo- and electrophysical effects in conditions of linear and nonlinear interaction of optical radiation with matter.

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Head

Vasnietsov Mykhailo V.,

Registration Date

19-02-2020

Organization

Institute of physics of NAS of Ukraine

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An object of study is optical fields in various interactions with matter, materials for new technologies and methods of optical analysis. Modern optical technologies require extensive search for both new materials and new research methods. In this project, a broad search was conducted in various fields of research of the interaction of optical radiation with matter and the development of methods of optical analysis The first section presents the results obtained in the process of investigation of light-induced molecular transformations of organic molecules in the process of photosynthesis of vitamin D, absorption spectroscopy and luminescence of thin films of metal-organic perovskites for problems of organic laser radiation sources, and temperature dependence of delayed photoluminescence of polymer polyamide-6. The second section includes materials of investigation of the interaction of high power femtosecond pulses with solid transparent infrared (IR) materials, and low power optical beams with photorefractive crystals of tin hypothiophosphate (Sn2P2S6). The peculiarities of the formation of thin waveguides due to the filamentation of the powerful pulse due to the stimulated optical non-linearity of matter are established. For crystals Sn2P2S6 grown by the Bridgeman method the light-induced nonlinearity was first investigated. The distinct photorefraction effect was observed in the nearest infrared region of the spectrum. The third section is devoted to the use of optical radiation for the problems of atomic optics, correlation image processing and singular optics. An overview of the current state of atomic interferometers is performed. Phase correlation invariant results using the synthesized phase objects method are presented. The results obtained are promising for the development of new hybrid materials for optoelectronic and photovoltaic applications.

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Yezhov Pavlo V.
Blonskii Ivan V.
Vasnetsov Mikhailo V.
Vakhnin Olexandr Yu.
Gvozdovskii Igor A.
Gulkov Mikhailo Yu.
Denisenko Volodimir G.
Dmitruk Andrii M.
Kadan Victor M.
Kadaschuk Andrii K.
Korenyuk Petro I.
Odulov Sergii G.
Pasko Valerii A.
Plutenko Dmitro O.
Ponevchinskii Vladislav V.
Skripka Yaroslav M.
Skrishevskii Yurii A.
Smirnova Tetiana M.
Soskin Marat S.
Terenetska Irina P.
Shumelyuk Olexandr M.
Scherbin Kostiantin V.

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2020-04-02