Nanomaterials in Optical and Optoelectronic Instrument Making
DOI:
https://doi.org/10.30837/rt.2020.2.201.08Keywords:
nanoparticles, nanomaterials, optically transparent polymer nanocompositesAbstract
Search and analysis of results of theoretical and experimental studies on literature and patent sources in the fields of optical and optical-electronic instrumentation is carried out. Current state and development trends of transparent polymer compositions containing nanoscale fillers, which open up new prospects for optical and optical-electronic instrumentation, are considered. Obtained data and recommendations on improvement and creation of new optically transparent nanocomposites are generalized, and can be used not only for connecting components of optical systems, but also for products in scintillation technology, lighting engineering, photovoltaics, and in many other fields of science and technology. Examples of some currently existing polymer and nanopolymer optical systems are considered. They includie an organosilicon composition for connecting optical elements, a plastic scintillator with nanostructured phosphors with improved time characteristics and light output values, a LED with multilayered scatterer with a variable index of refraction and an improved yield of radiation, optical compositions with a high refractive index on high transparency silicones for connection with optical elements in light-emitting devices or for lighting devices with a remote phosphor, as well as new materials and methods for dispersing nanoparticles. Given examples clearly show that complexity of the structures and micro dimensions of modern optical and optoelectronic products for their successful implementation and widespread adoption require new easy-to-use and not expensive optically transparent nanomaterials and technologies for their manufacture.References
Смирнов В.И. Физические основы нанотехнологий и наноматериалы : учеб. пособие. Ульяновск : УлГТУ, 2017. 240 с.
Серова В.Н. Оптические и другие материалы на основе прозрачных полимеров : монография / Федер. Агентство по образованию ; Казан. гос. технол. ун-т. Казань : КГТУ, 2010. 540 с.
Бурункова, Ю.Э., Денисюк, И.Ю., Шекланова Е.Б., Фокина, М.И. Оптические полимерные нанокомпозиты. СПб : Университет ИТМО, 2017. 80 с.
Бурункова. Ю. Э., Семьина С. А., Капорский Л.Н., Левичев В.В. Наномодифицированные оптические акрилатные композиты // Оптич. Ж. 2008. Т.75, № 10. С.54–58.
Вильчинская С.С., Лисицын В.М. Оптические материалы и технологии : учеб. пособие. Томск : Изд-во Томск. политехн. ун-та, 2011. 107с.
Патент РФ № 2505569 Кремнийорганическая композиция. Публикация патента: 27.01.2014 г.
Аспекты сцинтилляционной техники ; под ред. А.В. Гектина. Харьков : ИСМА, 2017. 264 с.
Б.В. Гринев, Н.Р. Гурджян, О.В. Зеленская, B.Р. Любинский, Л.И. Мицай, Н.И. Молчанова, В.А. Тара-сов. Детекторы на основе пластмассовых сцинтилляторов для портальных мониторов – оценка неопределенности чувствительности // Український метрологічний журнал. 2018. № 2. С.46–54.
Zhmurin P.N., Eliseev D.A., Lebedev V.N., Pereymak V.N., Svidlo O.V., Velmozhnaya E.S. Fast plastic scintillator with the high light yield // Functional Materials. 2016. Vol. 23, №3. Р. 408–413.
Патент РФ № 2380726 Пластмассовый сцинтиллятор с наноструктурированными люминофорами. Публикация патента: 27.01.2010 г.
Патент РФ № 2627378 Новые материалы и способы диспергирования наночастиц. Публикация патента: 16.08.2017 г.
Патент США № US6717362 Светодиод с изменяемым преломлением. Публикация патента: 06.04.2004 г.
Патент РФ № 2655358 Оптическая композиция. Публикация патента: 30.05.2018 г.
Патент РФ № 2567915 Оптическая композиция. Публикация патента: 09.11.2015 г.
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