Стаття

Отримано 21.07.2025

Доопрацьовано 23.11.2025

Прийнято 29.12.2025

Взято з Том 28, № 2, 2025

Сторінки 64 -75

Riabov, I., Overianova, L., Ivanov, K., Bilokon, I., & Zhukov, A. (2025). Development of a hybrid tractionsystem for a suburban multiple electric train with dual power supply. The National Transport University Bulletin: A Scientific and Technical Journal, 28(2), 64-75. https://doi.org/10.32703/2617-9040-2025-46-5

Розробка гібридної тягової системи для приміського електропоїзду з двосистемним живленням

Євген Рябов Лілія Овер’янова Костянтин Іванов Ірина Білоконь Антон Жуков

У  статті  розглянуто  та  проаналізовано  варіанти  побудови  тягових  систем сучасного  електрорухомого  складу.  Розглянуто  та  проаналізовано  тягові  системи,  в  яких використовуються  традиційні  підходи  до  схемотехнічних  рішень.  Проведено  огляд  тягових систем з перетворювачами з середньочастотними трансформаторами, використання яких зменшує  масу  електрообладнання,  потребує  меншого  простору  для  його  розміщення  та підвищує  енергоефективність  електрорухомого  складу.  Показано,  що  пріоритетним  є використання гібридної тягової системи з традиційною схемотехнікою, обладнання для якої має  високі  показники  надійності.  Запропоновано  варіанти  гібридних  тягових  систем  для приміського  електропоїзду  з  двосистемним  живленням.  Показано  доцільність  стабілізації наруги  проміжного  контуру  для  забезпечення  автономності  енергообміну  між  системою накопичення енергії та тяговим електроприводом. Проведено опис роботи схем та показано, що  при  виборі  напруги  проміжної  ланки  не  вище  1000В  можливе  використання  серійних технічних  рішень  в  обладнанні  системи  накопичення  енергії.  Запропоновані  гібридні  тягові системи  можуть  бути  використанні  при  модернізації  чи  створенні  моторвагонного електрорухомого складу, а також бути використанні на іншому рейковому транспорті

електрорухомий склад; енергоефективність; гібридна тягова система; тяговий електропривод; накопичувач енергії; тяговий перетворювач; тяговий трансформатор; тяговий асинхронний електродвигун
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https://doi.org/10.32703/2617-9040-2025-46-5