智能卡制造的材料力学问题

A. Schubert, B. Michel, H. Reichl
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引用次数: 6

摘要

智能卡有一些优点,例如可代替现金、储存任何种类的个人资料、电子识别、存取控制、数据加密和电子签名。应用领域包括银行、电信、高安全、社会服务等。智能卡允许的机械和热负荷要求相应的高质量包装技术。此外,智能卡在制造和服务期间的性能预测需要描述所涉及的相关过程的应力和温度。一个完整的解决所描述的问题需要在模拟工具和先进的物理实验之间直接耦合。有限元模拟加上适当的失效和疲劳模型,可以预测这些结构的使用寿命,并通过材料或几何形状的变化来提高寿命。由于这种结构中部件和材料的高度复杂性,因此强烈要求对特定情况下的模拟结果进行实验验证。现代测量和测试技术的能力,如微变形分析、扫描声学显微镜和x射线衍射残余应力的测量,在下面的文章中进行了演示和讨论。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Materials mechanics issues of smart card manufacturing
Smart cards offer some advantages, e.g., for replacement of cash, storage of personal data of any kind, electronic identification, access control, data encryption, and electronic signature. Application areas are banking, telecommunication, high security, and social service. Permissible mechanical and thermal loads to smart cards call for respective high quality packaging technologies. Furthermore, the prediction of smart card performance during manufacturing and service requires the description of stress and temperature of the dependent processes involved. A complete solution of the described problems needs a direct coupling between simulation tools and advanced physical experiments. Finite Element simulations together with appropriate failure and fatigue models allow to predict the life time of these configurations and to improve the same by material or geometry variation. Because of the high degree of component and material complexity in such configurations, an experimental verification of simulation results for particular cases is strongly indicated. Capabilities of modern measurement and testing techniques, as for example micro deformation analysis, scanning acoustic microscopy and the measurement of residual stresses by X-ray diffraction, are demonstrated and discussed in the following paper.
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