自激励式电磁铆接放电电流分析

doi:10.7527/S1000-6893.2016.0271

Abstract

Abstract:

Electromagnetic riveting is a riveting technology for transforming electromagnetic energy into mechanical energy. By traditional induction low voltage electromagnetic riveting, it is difficult to solve the problems of low energy efficiency, and riveting of high strength and large diameter rivet and hard forming material rivet. Based on self-excited electromagnetic riveting technology, the analysis model of discharge current is established. The feasibility of large diameter rivet forming is investigated by numerical analysis and process experiment. The results show that the model for discharge current analysis can realize the discharge current analysis of traditional induction and self-excited electromagnetic riveting. The analysis results are in good agreement with those of the experiment. When the discharge energy is the same, the eddy current repulsion peak of the self-excited electromagnetic riveting is much larger than that of the induction. The self-excited electromagnetic riveting can effectively improve the energy utilization rate, and is the effective way for the forming of large diameter rivets. When the discharge voltage is 320 V, self-excited electromagnetic riveting can deform the 45 steel rivet with 10 mm diameter, and the rivet deformation is carried out by adiabatic shearing.

Key words: electromagnetic riveting, self-excitation, discharge current, large diameter rivet, adiabatic shearing

CLC Number:

V262.4

DENG Jianghua, CHENG Li, WANG Linfeng. Discharge current in self-excited electromagnetic riveting[J]. ACTA AERONAUTICAET ASTRONAUTICA SINICA, 2017, 38(5): 420669-420669.

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Discharge current in self-excited electromagnetic riveting

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