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G. Harman, C. Cannon (1978)
The Microelectronic Wire Bond Pull Test-How to use It, How to Abuse ItIEEE Transactions on Components, Hybrids, and Manufacturing Technology, 1
Yong Ding, Janghoon Kim, P. Tong (2006)
Numerical analysis of ultrasonic wire bonding: Effects of bonding parameters on contact pressure and frictional energyMechanics of Materials, 38
D. Montgomery (1985)
Introduction to Statistical Quality Control
D. Rooney, DeePak Nager, D. Geiger, Dongkai Shanguan (2005)
Evaluation of wire bonding performance, process conditions, and metallurgical integrity of chip on board wire bondsMicroelectron. Reliab., 45
C. Lopez, L. Chai, A. Shaikh, V. Stygar (2004)
Wire bonding characteristics of gold conductors for low temperature co-fired ceramic applicationsMicroelectron. Reliab., 44
R. Tummala (2001)
Fundamentals of Microsystems Packaging
Z. Zhong (2009)
Fine and ultra‐fine pitch wire bonding: challenges and solutionsMicroelectronics International, 26
M. Zulkifli, S. Abdullah, N. Othman, A. Jalar (2012)
Some thoughts on bondability and strength of gold wire bondingGold Bulletin, 45
P. Lall, D. Barker, M. Pecht (1992)
Development Of An Alternative Wire Bond Test TechniqueThirteenth IEEE/CHMT International Electronics Manufacturing Technology Symposium
V. Sundararaman, D. Edwards, W.E. Subido, H.R. Test (2000)
Wire pull on fine pitch pads: an obsolete test for first bond integrity2000 Proceedings. 50th Electronic Components and Technology Conference (Cat. No.00CH37070)
Jun Qi, Ngar-Chun Hung, Ming Li, Deming Liu (2006)
Effects of process parameters on bondability in ultrasonic ball bondingScripta Materialia, 54
I. Lum, J. Jung, Y. Zhou (2005)
Bonding mechanism in ultrasonic gold ball bonds on copper substrateMetallurgical and Materials Transactions A, 36
G. Harman (1992)
Wire bonding-towards 6- sigma yield and fine pitch, 15
Hui Xu, Changqing Liu, V. Silberschmidt, Zhong Chen, Jun Wei (2010)
The role of bonding duration in wire bond formation: a study of footprints of thermosonic gold wire on aluminium padMicroelectronics International, 27
Purpose– This paper aims to analyze the effect of Au wire size and location of hook during wire pulling test to identify the variation of results obtained. Design/methodology/approach– Two hook locations, namely, location A and location B were used to analyze the effect of hook location. Location A was the same as the hook location required by MIL-STD-883E standard, whereas location B was located near to the second bond. The correlation between new purposed failure modes and MIL-STD-883E standard was developed to reflect on the pull strength with the physical failure. Findings– It was observed that fine pitch Au wire has higher variation and lower process capability of pull strength. Au wire pulled by the hook at location B provides a more representative result compared to that at location A. Fifty per cent or more of Au remnant is required to be considered as a good and reliable Au wedge bond based on the new purposed failure modes. Originality/value– The evaluation of gold (Au) wedge bond requires a new proper wire pulling test method. This is due to the large variation obtained from the application of current practice of wire pulling test.
Microelectronics International – Emerald Publishing
Published: Jan 5, 2015
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