Актуальные проблемы в машиностроении. 2015. №2
Технологическое оборудование,
оснастка и инструменты
____________________________________________________________________
255
21. Нейман Л.А. Исследование нагрева электромагнитного двигателя в переходных
режимах / Л.А. Нейман, А.А. Скотников, В.Ю. Нейман // Известия вузов. Электромеханика.
– 2012. – № 6. – С. 50–54.
22. Нейман Л.А, Нейман В.Ю. Шабанов А.С. Упрощенный расчет электромагнитного
ударного привода в повторно-кратковременном режиме работы / Л.А. Нейман, В.Ю. Нейман,
А.С. Шабанов // Электротехника. – 2014. – № 12. – С. 50–53.
THERMAL DESIGN OF THE IMPACT TOOL WITH AN ELECTROMAGNETIC DRIVE
Neyman L.A.
, Ph.D. (Engineering), Associate Professor, e-mail:
neyman@ngs.ruNovosibirsk State Technical University, 20, Prospect K. Marksa, Novosibirsk, 630073, Russian
Federation
Abstract
Efficient vibration and vibroimpact processes are common in industry. To implement these
processes linear electromagnetic impact machines are extensively used. These machines are based
on cylindrical power electromagnets which have relatively high power and energy efficiency. The
relevance of the research is dictated by the need to increase a specific impact of electromagnetic
power machines with a continuous operating mode, which is inextricably linked with the
development and design of efficient cooling systems. The function of these systems is to take all the
heat released by maintaining a maximum temperature of the coil impact unit at an acceptable level
determined by the magnet wire insulation class. The heating temperature of the electromagnetic
impact tool active elements using the software package ELCUT has been calculated. Diagrams of
temperature fields of the stationary heating mode of the impact unit active elements are shown.
Keywords
heat, coil, electromagnetic impact assembly, thermal field, finite-element modeling,
electromagnetic impact machine