一种新型医用可调电容器的电气建模方法及制造

Zaineb Jebri, I. B. Majek, C. Delafosse, Y. Ousten
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引用次数: 0

摘要

可调电容器一般由定子和转子组成。定子由介电管和固定电极组成,固定电极固定在外部。转子是充当可变电极的导电体,在壳体内轴向运动。此外,整个结构是通过螺钉、夹子、焊接和其他连接机制组合在一起的。作为一个组成部件,制造时间和成本增加。这些电容器是为需要自己条件的尖锐领域制造的。这些限制需要在制造过程中采取额外的步骤,并增加设备故障的百分比,因此这也降低了该过程的盈利能力。为了制造出性能更强的新型非磁性微调器(可调电容器)以满足核磁共振(NMR)的要求,作为MRI(磁共振成像)应用,电建模是提高实证研究结果从而提供高水平质量并减少制造时间和成本的重要一步。在此背景下,利用ANSYS设计创新的机电器件,模拟元件的静电性能,然后估计大量的修剪参数(材料性能、电容值、击穿电压),并预测临界电效应(电晕、点和边缘效应)。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Electrical modeling approach and manufacturing of a new adjustable capacitor for medical applications
An adjustable capacitor generally consists in a stator and a rotor. The stator is made of the dielectric tube and the fixed electrode which is affixed in the outer. The rotor is the conductive body that acts as the variable electrode, and it moves axially in the housing. Furthermore, this entire structure is held together with a combination of screws, clips, soldering and other connection mechanisms. As a composed component, manufacturing time and cost increase. These capacitors are made for sharp domains that require their own conditions. These constraints need additional steps in the manufacturing process and increase the percentage of device failures, so this also drives down the profitability of the process.In order to create a new range of non-magnetic trimmers (adjustable capacitors) more performant to meet the Nuclear magnetic resonance (NMR) requirements, as MRI (Magnetic Resonance Imaging) applications, electrical modeling is an important step to improve empirical research results so to provide a high level of quality and to reduce manufacturing time and cost while.In this context ANSYS is used to design innovative electromechanical devices, simulate electrostatic performance of the component and then estimate a large number of trimmer parameters (material properties, capacitance value, breakdown voltage) and anticipate critical electrical effects (corona, point and edge effects).
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