• DocumentCode
    1182725
  • Title

    A Neural Network-Based Prediction Model in Embedded Processes of Gold Wire Bonding Structure for Stacked Die Package

  • Author

    Chang, Chin-Huang ; Hung, Yung-Hsiang

  • Author_Institution
    R&D Center, Siliconware Precision Ind. Co. Ltd., Taichung
  • Volume
    97
  • Issue
    1
  • fYear
    2009
  • Firstpage
    78
  • Lastpage
    83
  • Abstract
    The trend in the consumer electronics market is to offer lighter, smaller outline, and more functional products, especially for portable products. This trend has pushed electronic packages to be thinner, with a lower profile and with multiple chips in one package. When the package becomes thinner, the space of the package correspondingly becomes an important issue. In order to obtain higher density and thinner package, we have to develop an embedded gold wire bonding assembly technology. It provides a simple structure with a thick adhesive layer to fix the upper layer die and bottom layer die gold wire. The developed technology can use exactly the same die size as for wire bonding interconnections without any additional processing. All electrical connections of the upper and the lower die are achieved by wire bonding to the substrate, independently. We have performed this stacking assembly by precise control of the die attach film layer thickness and low wire loop shape.
  • Keywords
    electronic engineering computing; electronics packaging; interconnections; lead bonding; neural nets; embedded gold wire bonding assembly; gold wire bonding structure; neural network-based prediction model; stacked die package; wire bonding interconnections; Assembly; Bonding; Consumer electronics; Electronics packaging; Gold; Neural networks; Predictive models; Shape control; Space technology; Wire; Artificial neural networks; dicing die attach film; die stacking; embedded process; gold wire bonding; same size;
  • fLanguage
    English
  • Journal_Title
    Proceedings of the IEEE
  • Publisher
    ieee
  • ISSN
    0018-9219
  • Type

    jour

  • DOI
    10.1109/JPROC.2008.2007468
  • Filename
    4796868