Nondestructive Sensing of Interconnect Failure Mechanisms Using Time-Domain Reflectometry

被引:19
|
作者
Kwon, Daeil [1 ]
Azarian, Michael H. [2 ]
Pecht, Michael [2 ]
机构
[1] Intel Corp, Chandler, AZ 85226 USA
[2] Univ Maryland, CALCE, College Pk, MD 20742 USA
关键词
Fatigue; impedance; interconnection; reliability; time-domain reflectometry;
D O I
10.1109/JSEN.2010.2088118
中图分类号
TM [电工技术]; TN [电子技术、通信技术];
学科分类号
0808 ; 0809 ;
摘要
This paper presents time-domain reflectometry (TDR) as a nondestructive sensing method for interconnect failure mechanisms. Two competing interconnect failure mechanisms of electronics were considered: solder joint cracking and solder pad cratering. A simple theoretical analysis is presented to explain the effect of each failure mechanism on the TDR reflection coefficient. Mechanical fatigue tests have been conducted to confirm the theoretical analysis. The test results consistently demonstrated that the TDR reflection coefficient gradually decreased as the solder pad separated from the circuit board, whereas it increased during solder joint cracking. Traditional test methods based on electrical resistance monitoring cannot distinguish between failure mechanisms and do not detect degradation until an open circuit has been created. In contrast, the TDR reflection coefficient can be used as a sensing method for the determination of interconnect failure mechanisms as well as for early detection of the degradation associated with those mechanisms.
引用
收藏
页码:1236 / 1241
页数:6
相关论文
共 50 条
  • [41] Characterization of power electronics system interconnect parasitics using time domain reflectometry
    Zhu, HB
    Hefner, AR
    Lai, JS
    PESC 98 RECORD - 29TH ANNUAL IEEE POWER ELECTRONICS SPECIALISTS CONFERENCE, VOLS 1 AND 2, 1998, : 1937 - 1943
  • [42] Time-Domain Reflectometry for Imaging Conductive Environment
    Dima, G.
    McMahon, C.
    Radkovskaya, A.
    O'Hara, E.
    Dhayaa, D.
    Long, C.
    Yan, J.
    Solymar, L.
    Shamonina, E.
    2024 EIGHTEENTH INTERNATIONAL CONGRESS ON ARTIFICIAL MATERIALS FOR NOVEL WAVE PHENOMENA, METAMATERIALS 2024, 2024,
  • [43] ETHANOL FUEL ANALYSIS BY TIME-DOMAIN REFLECTOMETRY
    Rodrigues, Daniel B. R.
    Peres, Henrique E. M.
    Becari, Wesley
    2013 SBMO/IEEE MTT-S INTERNATIONAL MICROWAVE & OPTOELECTRONICS CONFERENCE (IMOC), 2013,
  • [44] Wavelength Coded Optical Time-Domain Reflectometry
    Zhu, Ning Hua
    Ke, Jian Hong
    Zhang, Hong Guang
    Chen, Wei
    Liu, Jian Guo
    Zhao, Ling Juan
    Wang, Wei
    JOURNAL OF LIGHTWAVE TECHNOLOGY, 2010, 28 (06) : 972 - 977
  • [45] Computational Brillouin Optical Time-Domain Reflectometry
    Guo, Xinyue
    Zhou, Da-Peng
    Peng, Wei
    AOPC 2023:OPTIC FIBER GYRO, 2023, 12968
  • [46] Time-domain reflectometry module for DSL analyzer
    Opalska, Katarzyna
    Burd, Aleksander
    Owczarek, Tomasz
    INTERNATIONAL JOURNAL OF ELECTRONICS AND TELECOMMUNICATIONS, 2008, 54 (03) : 367 - 375
  • [47] DETERMINATION OF CONDUCTIVITY PROFILES BY TIME-DOMAIN REFLECTOMETRY
    BOLOMEY, JC
    DURIX, C
    LESSELIER, D
    IEEE TRANSACTIONS ON ANTENNAS AND PROPAGATION, 1979, 27 (02) : 244 - 248
  • [48] AUTOMATION OF OPTICAL TIME-DOMAIN REFLECTOMETRY MEASUREMENTS
    MAIER, FA
    SEEGER, H
    HEWLETT-PACKARD JOURNAL, 1995, 46 (01): : 57 - 62
  • [49] COMPLEMENTARY CORRELATION OPTICAL TIME-DOMAIN REFLECTOMETRY
    SISCHKA, F
    NEWTON, SA
    NAZARATHY, M
    HEWLETT-PACKARD JOURNAL, 1988, 39 (06): : 14 - 21
  • [50] Measurement of material moisture with time-domain reflectometry
    Stacheder, M
    Kohler, K
    Fundinger, R
    Blume, P
    TECHNISCHES MESSEN, 1997, 64 (11): : 453 - 457