Инд. авторы:	Чуркин Д.В., Хорев С.В., Ватник И.Д.
Заглавие:	Пространственно-временная динамика волоконных лазерных систем (обзор)
Библ. ссылка:	Чуркин Д.В., Хорев С.В., Ватник И.Д. Пространственно-временная динамика волоконных лазерных систем (обзор) // Автометрия. - 2017. - Т.53. - № 2. - С.3-18. - ISSN 0320-7102.
Внешние системы:	DOI: 10.15372/AUT20170201; РИНЦ: 28982745;
Реферат:	rus: Рассматривается новая концепция изучения пространственно-временных режимов генерации в лазерах, при которых в излучении одновременно сосуществуют несколько временных масштабов (один из них связан со временем обхода резонатора). Суть концепции заключается в том, зависимость интенсивности от времени исследуется в двух измерениях, одно из которых соответствует эволюции по последовательным обходам резонатора. Показывается разнообразие пространственно-временных режимов генерации в волоконных лазерах различных типов, например квазинепрерывных лазерах, импульсных лазерах с пассивной и активной сихронизацией мод. Демонстрируется возможность экспериментального детектирования локализованных структур, в том числе солитонов, в излучении волоконных лазеров. Обсуждаются перспективы предложенного подхода. eng: This paper presents a new concept for studying the spatio-temporal modes of laser generation in which several time scales coexist in the emission (one of which is related to the resonator round-trip time). The essence of the concept is that the time dependence of the intensity is investigated in two dimensions, one of which corresponds to the evolution over sequential resonator round-trips. It is shown that fiber lasers of various types, e.g., quasicontinuous lasers and passive and active mode locked pulsed lasers, has a diversity of spatio-temporal generation modes. The possibility of experimental detection of localized structures, including solitons, in fiber laser radiation is demonstrated. The prospects of the proposed approach are discussed.
Ключевые слова:	оптическое гетеродинирование; временнáя динамика; экстремальные события; солитоны; интенсивность генерации; Optical heterodyning; solitons; Temporal dynamics; extreme events; Generation intensity;
Издано:	2017
Физ. характеристика:	с.3-18
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