电磁推进的磁-力耦合效应分析

Yuxin Yang, Peng Liu, Q. Yin, Keren Dai, Haojie Li, He Zhang
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引用次数: 0

摘要

电磁推进中的磁-力耦合效应是相关领域的一个重要研究课题。然而,钢轨与电枢之间的高动态电接触导致有限元模拟中的网格变形,这大大增加了描述耦合效应的难度。相比之下,使用校准传感器的实验方法比有限元方法更可靠。因此,本文采用有序耦合方法,从静、动两方面研究了电枢的磁-力耦合关系。研制并标定了多参数弹载贮存试验系统。为了描述不同物理场参数的同步采集和恢复,使用了多种传感器来测量电枢的磁感应强度和速度。试验结果表明,引入修正系数后,电枢在发射载荷下的磁感应强度变化可用于判断电枢的运动状态。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Analysis of the magnetomechanical coupled effect on electromagnetic propulsion
The magnetomechanical coupled effect on electromagnetic propulsion is an important topic in related fields. However, the high dynamic electrical contact between rails and the armature leads to mesh deformation in finite element simulations, which markedly increases the difficulty of describing the coupling effect. In contrast, the experimental method that uses a calibrated sensor is more reliable than the finite element method. Thus, this paper used the ordered coupling method to study the magneto-mechanical coupling relationship of an armature from both static dynamic perspectives. A multiparameter projectile-borne storage testing system was also developed and calibrated. To describe the synchronous collection and recovery of different physical field parameters, a variety of sensors were used to measure the magnetic induction and the velocity of the armature. The test results show that the change in magnetic induction at the launch load can be used to judge the movement state of the armature when the correction factor is introduced.
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