Waveform conversion and validation of transient magnetic field due to ESD using equivalent circuit of magnetic near‐field probe

IF 0.4 4区 工程技术 Q4 ENGINEERING, ELECTRICAL & ELECTRONIC
Jianqing Wang, K. Kawamata, S. Ishigami, Takeshi Ishida, O. Fujiwara
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引用次数: 0

Abstract

With a 6 GHz band high resolution magnetic near‐field probe (XF‐R 3‐1) produced by Langer, the transient magnetic fields due to collision ESDs (electrostatic discharges) between metal balls at a charging voltage of 600 V were measured near the spark point to investigate a dipole radiation mechanism. In this study, as an object of considering the measured magnetic field waveforms, two different equivalent circuits of the magnetic near‐field probe are derived based on the probe response waveform observed by a TDR (time domain reflectometer) with a 10 ps rise‐time pulse and the probe reflection coefficient measured with a 26 GHz network analyzer. Waveform conversion formulae from the probe output voltage to the magnetic field are given. The validity of the conversion methods is verified by comparing the measured conversion waveforms and their frequency spectra in addition to the converted spectra by the Langer field correction curve with the calculated waveforms of the transient magnetic far‐fields from a dipole model consisting of image charge pairs and the Rompe‐Weizel spark resistance formula. The probe conversion formulae presented here are valid within the frequency range of the 6 GHz probe band, however, beyond the band the resonance peaks at multiple frequencies over 8 GHz appear on the spectra, which causes damping oscillations peculiar to the probe with multiple frequencies to the time domain waveform.
利用磁性近场探头等效电路进行ESD瞬态磁场波形转换与验证
利用Langer公司生产的6 GHz波段高分辨率近场磁探头(XF‐R 3‐1),测量了金属球在600 V充电电压下碰撞静电放电产生的瞬态磁场,探讨了偶极子辐射机制。本研究以测量的磁场波形为对象,基于10ps上升时间脉冲TDR(时域反射计)观测到的探头响应波形和26ghz网络分析仪测量到的探头反射系数,推导出两种不同的磁场近场探头等效电路。给出了探头输出电压到磁场的波形转换公式。通过将测量到的转换波形及其频谱以及Langer场校正曲线转换后的频谱与由像电荷对组成的偶极子模型和Rompe - Weizel火花电阻公式计算得到的瞬态磁远场波形进行比较,验证了转换方法的有效性。本文提出的探头转换公式在6 GHz探头频带的频率范围内是有效的,但在该频带之外,频谱上出现了多个频率超过8 GHz的共振峰,这导致了多频率探头对时域波形特有的阻尼振荡。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Electrical Engineering in Japan
Electrical Engineering in Japan 工程技术-工程:电子与电气
CiteScore
0.80
自引率
0.00%
发文量
51
审稿时长
4-8 weeks
期刊介绍: Electrical Engineering in Japan (EEJ) is an official journal of the Institute of Electrical Engineers of Japan (IEEJ). This authoritative journal is a translation of the Transactions of the Institute of Electrical Engineers of Japan. It publishes 16 issues a year on original research findings in Electrical Engineering with special focus on the science, technology and applications of electric power, such as power generation, transmission and conversion, electric railways (including magnetic levitation devices), motors, switching, power economics.
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