单结热变换器ESD应力分析与抑制

IF 0.5 Q4 ENGINEERING, ELECTRICAL & ELECTRONIC Advances in Electrical and Electronic Engineering Pub Date : 2022-04-01 DOI:10.15598/aeee.v20i1.4115
T. E. Kgakatsi, E. Golovins, Johan Venter
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引用次数: 0

摘要

. 本文概述了以人体模型(HBM)静电放电(ESD)为代表的电瞬态扰动(ETDs)在以单结热转换器(SJTC)热元件(TE)为代表的交流-直流传输测量标准上的概况。提出了针对功率耗散累积的缓解技术,该技术高于制造商建议的运行边际,并使用拉普拉斯变换(LT)分析进行了建模。开发了数学模型和优化算法,以确定瞬态过载保护模块(TOPM)的等效电路模型参数,该模块可以提供足够的保护,防止TE上的破坏性功耗水平积聚。数学模型是使用8 kV ESD开发的,该ESD预计将提供峰值约为5的短路电流。33 A通过大约1 m的负载阻抗Ω。将ESD应力信号注入与TE平行连接的TOPM中。根据数学分析得到的电流和电压,计算出SJTC TE在瞬态响应周期内耗散的有功功率,结果表明,该TE的耗散功率为10 mW。从算法中可以看出,对TOPM的功耗能力有显著影响的模型参数是电感,它必须小于1。2 nH。建立了基于CAD的仿真模型并进行了分析。仿真结果与数学模型吻合。
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ESD Stress Analysis and Suppression in a Single-Junction Thermal Converter
. This article presents an outline of Electric Transient Disturbances (ETDs), represented by the ElectroStatic Discharge (ESD) in accordance with the Human-Body Model (HBM), on the AC-DC transfer measurement standard, represented by the Single-Junction Thermal Converter (SJTC) Thermal Element (TE). Mitigation technique against the power dissipation build-up, higher than the operational margins recommended by a manufacturer, on the TE were proposed and modelled using Laplace Transform (LT) analysis. A mathematical model and an optimization algorithm were developed to determine the equivalent circuit model parameters of a Transient Overload Protection Module (TOPM) that would offer adequate protection against destructive power dissipation levels build-up on the TE. The mathematical model was developed using an 8 kV ESD, which was expected to deliver short-circuit current with a peak value of approx-imately 5 . 33 A through a load impedance of approxi-mately 1 m Ω . The ESD stress signal was injected into the TOPM connected in parallel with the TE. The active power dissipated by the SJTC TE per period of transient response was calculated from the current and voltage obtained from the mathematical analysis, and the results indicate a power dissipation of 10 mW by the TE. From the algorithm, the model parameter that noticeably influences the power dissipation capabilities of the TOPM is the inductance and it must be smaller than 1 . 2 nH. A CAD based simulation model was developed and analysed. The simulation results agreed with the mathematical model.
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来源期刊
Advances in Electrical and Electronic Engineering
Advances in Electrical and Electronic Engineering ENGINEERING, ELECTRICAL & ELECTRONIC-
CiteScore
1.30
自引率
33.30%
发文量
30
审稿时长
25 weeks
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