Infokommunikacionnye tehnologiiInfokommunikacionnye tehnologiiИнфокоммуникационные технологии2073-3909Povolzhskiy State University of Telecommunications and Informatics63512410.18469/ikt.2023.21.4.05Communication lines and fiber-optics telecommunications technologiesЛинии связи и волоконно-оптические технологии телекоммуникацийResearch ArticleOptimization of Mode Propagation for an Embedier of Optical Vortex Beams Based on a Micro-Ring ResonatorОптимизация распространения мод для излучателя оптических вихревых пучков на основе микрокольцевого резонатораBakirovaLiaisan I.БакироваЛяйсан Ильшатовна
Russian Federation

Junior Researcher of the Research Laboratory «Sensor Systems Based on Integrated Photonics Devices»

младший научный сотрудник научно-исследовательской лаборатории (НИЛ) «Сенсорные системы на основе устройств интегральной фотоники»

bakirova.li@ugatu.suVoronkovGrigory S.ВоронковГригорий Сергеевич
Russian Federation

Associated Professor of Telecommunication Systems Department, Senior Researcher of the Research Laboratory «Sensor Systems Based on Integrated Photonics Devices», PhD in Technical Science

к.т.н., доцент, доцент кафедры телекоммуникационных систем (ТС), старший научный сотрудник НИЛ «Сенсорные системы на основе устройств интегральной фотоники»

voronkov.gs@ugatu.suLyubopytovVladimir S.ЛюбопытовВладимир Сергеевич
Russian Federation

Senior Researcher of the Research Laboratory «Sensor Systems Based on Integrated Photonics Devices», PhD in Technical Science

к.т.н., старший научный сотрудник НИЛ «Сенсорные системы на основе устройств интегральной фотоники»

lyubopytov.vs@ugatu.suStepanovIvan V.СтепановИван Васильевич
Russian Federation

Associated Professor of Telecommunication Systems Department, Research Engineer of the Research Laboratory «Sensor Systems Based on Integrated Photonics Devices», PhD in Technical Science

инженер-исследователь НИЛ «Сенсорные системы на основе устройств интегральной фотоники»

stepanov.iv@ugatu.suKutluyarovRuslan V.КутлуяровРуслан Владимирович
Russian Federation

Associated Professor of Telecommunication Systems Department, Senior Researcher of the Research Laboratory «Sensor Systems Based on Integrated Photonics Devices», PhD in Technical Science

к.т.н., доцент кафедры ТС, старший научный сотрудник НИЛ «Сенсорные системы на основе устройств интегральной фотоники»

kutluyarov.rv@ugatu.suGrakhovaElizaveta P.ГраховаЕлизавета Павловна
Russian Federation

Associated Professor of Telecommunication Systems Department, Head of Research Laboratory of «Sensor Systems Based on Integrated Photonics Devices», PhD in Technical Science

к.т.н., доцент кафедры ТС, заведующая НИЛ «Сенсорные системы на основе устройств интегральной фотоники»

grakhova.ep@ugatu.suBagmanovValery Kh.БагмановВалерий Х.
Russian Federation

Professor of Telecommunication Systems Department, Doctor of Technical Science

д.т.н., профессор кафедры ТС

bagmanov.v@rambler.ruUfa University of Science and TechnologyУфимский университет науки и технологий1109202421429371208202412082024Copyright ©; 2024, Bakirova L.I., Voronkov G.S., Lyubopytov V.S., Stepanov I.V., Kutluyarov R.V., Grakhova E.P., Bagmanov V.K.Copyright ©; 2024, Бакирова Л.И., Воронков Г.С., Любопытов В.С., Степанов И.В., Кутлуяров Р.В., Грахова Е.П., Багманов В.Х.2024Bakirova L.I., Voronkov G.S., Lyubopytov V.S., Stepanov I.V., Kutluyarov R.V., Grakhova E.P., Bagmanov V.K.Бакирова Л.И., Воронков Г.С., Любопытов В.С., Степанов И.В., Кутлуяров Р.В., Грахова Е.П., Багманов В.Х.https://creativecommons.org/licenses/by-nc-nd/4.0https://journals.eco-vector.com/2073-3909/article/view/635124

Light beams with orbital angular momentum have unique properties that make them valuable for research and practical applications. From revolutionizing communication technologies to enabling advanced microscopy and quantum computing possibilities, these beams continue to drive innovation and open up new frontiers in optics and photonics. In this paper, the dependence of the radiation flux density of an optical vortex beam on the geometry of the emitting structure is investigated. A micro-ring resonator with periodic structures is used as an optical vortex beam emitter structure. In our study, optimizing the width of the ring waveguide leads to an increase in the radiation flux power up to 30% for the resonant wavelength of 1563 nm. To analyze how the whispering gallery modes are distributed in the cross section of the annular waveguide, we increased the annular waveguide width from 400 nm to 500 nm. This proposed approach can be applied to radiating micro-ring resonators in various applications.

Световые пучки с орбитальным угловым моментом, обладают уникальными свойствами, которые делают их ценными для исследований и практического применения. От революции в технологиях связи до передовой микроскопии и возможностей квантовых вычислений – эти лучи продолжают стимулировать инновации и открывать новые горизонты в оптике и фотонике. В данной работе исследуется зависимость мощности потока излучения оптического вихревого пучка от геометрии излучающей структуры. В качестве излучателя оптического вихревого пучка используется микрокольцевой резонатор с периодической структурой. В нашем исследовании оптимизация ширины кольцевого волновода приводит к увеличению мощности потока излучения до 30% для резонансной длины волны 1563 нм. Чтобы проанализировать, как моды шепчущей галереи распределяются в поперечном сечении кольцевого волновода, мы увеличили ширину последнего с 400 нм до 500 нм. Предложенный подход может быть применен к излучающим микрокольцевым резонаторам в различных приложениях.

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