中文摘要：

(EMF ) 电磁的形成是使用的一种高速度的生产技术电磁(Lorentz ) 身体强迫塑造表金属部分。EMF 的几个优点之一是在几金属观察的可观的韧性增加，与在他们之中显著地展示的铝。(EMAS ) 电磁地帮助的表金属踩是处理把 EMF 合为传统的踩的技术的创新的混合的表金属。评估这种技术的效率， EMAS 的一个试验性的计划根据从铝的圆柱的部分的常规踩被建立，遇到的 formability 被讨论。而且，多步，松开的联合数字计划被建议通过建立自定义子程序基于 ANSYS Multiphysics/LS-DYNA 站台调查变丑行为。电磁地帮助了深绘画的结果表演能显著地改进铝的 formability 圆柱的部分。建议数字计划能成功地模仿相关 Stamping-EMF 过程，和表金属的变丑特征反映试验性的结果。预言的结果也在实验与使变形的表的侧面被验证。

英文摘要：

Electromagnetic forming（EMF） is a high-velocity manufacturing technique which uses electromagnetic （Lorentz） body forces to shape sheet metal parts. One of the several advantages of EMF is the considerable ductility increase observed in several metals, with aluminum featuring prominently among them. Electromagnetically assisted sheet metal stamping（EMAS） is an innovative hybrid sheet metal processing technique that combines EMF into traditional stamping. To evaluate the efficiency of this technique, an experimental scheme of EMAS was established according to the conventional stamping of cylindrical parts from aluminum and the formability encountered was discussed. Furthermore, a ＂multi-step, loose coupling＂ numerical scheme was proposed to investigate the deformation behaviors based on the ANSYS Multiphysics/LS-DYNA platform through establishing user-defined subroutines. The results show that electromagnetically assisted deep drawing can remarkably improve the formability of aluminum cylindrical parts. The proposed numerical scheme can successfully simulate the related Stamping-EMF process, and the deformation characteristics of sheet metal reflect experimental results. The predicted results are also validated with the profiles of the deformed sheets in experiments.