Electric charge accumulation properties in packaged insulation layer of power electronic devices by using direct current integrated charge method

被引:0
|
作者
Mima M. [1 ]
Hanazawa D. [1 ]
Hijikata K. [1 ]
Miyake H. [1 ]
Tanaka Y. [1 ]
Takada T. [1 ]
Inoue T. [2 ]
机构
[1] Measurement and Electric Machine Control Labs., Tokyo City University, 1-28-1, Tamatsutsumi, Setagaya-ku, Tokyo
[2] A and D Co., 3-23-14, Higashi-ikebukuro, Toshima-ku, Tokyo
关键词
DCIC-Q(t); Diode bridge; Electric charge accumulation; IGBT; Power module;
D O I
10.1541/ieejfms.139.197
中图分类号
学科分类号
摘要
This paper describes the electric charge accumulation properties in package insulation layer of power electronic devices (IGBT module and diode bridge) under conditions of DC voltage application (100 V to 4000 V) and temperature conditions (room temperature to 80?) by using a direct current integrated charge method (DCIC-Q(t)). The DCIC-Q(t) equipment is connected in series to the sample under DC voltage source. The DCIC-Q(t) is contained all information of charging currents to the test sample under applied rectangular wave voltage, such as the integrated charge of initial current, Q0 = CsVdc, the integrated charge of absorption current, Qabs, and the integrated charge of leakage current, Qleak. We discuss the charge accumulation properties from Q(t) and the ratio of Q(t)/Q0 in the electronic devices under various DC voltage and temperatures. The DCIC-Q(t) equipment is useful to evaluate the electric charge accumulation properties in completed power electronic devices. © 2019 Institute of Electrical Engineers of Japan. All Rights Reserved.
引用
收藏
页码:197 / 204
页数:7
相关论文
共 46 条
  • [41] A simple and cost-effective method for fabrication of integrated electronic-microfluidic devices using a laser-patterned PDMS layer
    Ming Li
    Shunbo Li
    Jinbo Wu
    Weijia Wen
    Weihua Li
    Gursel Alici
    Microfluidics and Nanofluidics, 2012, 12 : 751 - 760
  • [42] Destruction of polymer insulation and threshold amplitudes of current pulses of different temporal shapes for electric wires and cables in the low- and high-current circuits of pulse power engineering, electrical engineering and electronic devices
    Baranov, M., I
    Buriakovskyi, S. G.
    Kniaziev, V. V.
    ELECTRICAL ENGINEERING & ELECTROMECHANICS, 2021, (06) : 31 - 38
  • [43] Electronic, magnetic and optical properties of the charge-disproportionated YNiO3 compound calculated using the GGA plus U method
    da Silva, Edjan Alves
    de Candido, Samuel Domenech
    Abbate, Miguel
    RSC ADVANCES, 2024, 14 (26) : 18291 - 18295
  • [44] Manipulation of the Electronic Transport Properties of Charge-Transfer Oxide Thin Films of NdNiO3 Using Static and Electric-Field-Controllable Dynamic Lattice Strain
    Yan, Jian-Min
    Xu, Meng
    Chen, Ting-Wei
    Yang, Ming-Min
    Liu, Fei
    Wang, Hui
    Guo, Lei
    Xu, Zhi-Xue
    Fan, Fang-Yuan
    Gao, Guan-Yin
    Dong, Si-Ning
    Li, Xiao-Guang
    Luo, Hao-Su
    Zhao, Weiyao
    Zheng, Ren-Kui
    PHYSICAL REVIEW APPLIED, 2019, 11 (03)
  • [45] Cubic-phase zirconia nano-island growth using atomic layer deposition and application in low-power charge-trapping nonvolatile-memory devices
    El-Atab, Nazek
    Ulusoy, Turkan Gamze
    Ghobadi, Amir
    Suh, Junkyo
    Islam, Raisul
    Okyay, Ali K.
    Saraswat, Krishna
    Nayfeh, Ammar
    NANOTECHNOLOGY, 2017, 28 (44)
  • [46] Direct charge carrier injection into Ga2O3 thin films using an In2O3 cathode buffer layer: their optical, electrical and surface state properties
    Cui, W.
    Zhao, X. L.
    An, Y. H.
    Guo, D. Y.
    Qing, X. Y.
    Wu, Z. P.
    Li, P. G.
    Li, L. H.
    Cui, C.
    Tang, W. H.
    JOURNAL OF PHYSICS D-APPLIED PHYSICS, 2017, 50 (13)