薄型模具取件柔性机构的研制

Huaxian Wei, Tao Wu, Fupei Wu, Yuanchao Li, X. Niu
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引用次数: 0

摘要

薄半导体芯片在取放过程中的处理能力已成为芯片封装过程中的主要挑战之一。当切屑变薄时,切屑强度急剧下降,切屑裂纹增加,特别是在取屑过程中。传统的以伺服电机和凸轮机构为基础的取屑机销驱动系统,难以实现对蓝胶带取屑时弹射速度和冲击力的精确控制。本文研究了一种基于压电叠层作动器和柔性机构的薄型取模销驱动系统。首先,通过与传统取模设备的比较,建立了用于薄型取模工艺的压电驱动柔性机构的概念设计;然后,设计并分析了一种适用于薄型取模工艺的桥式挠性机构。采用响应面法建立了柔性机构的参数化模型,并对其结构进行了优化。研制并测试了该机构的原型。对实验结果进行了讨论。该柔性机构最终可实现9倍以上的位移放大。
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Development of a Flexure Mechanism for Thin Die Pick-up Process
The capability of handling thin semiconductor chips during the pick-and-place process has become one of the major challenges in chip packaging process. When the chip becomes thinner, strength of the chip decreases dramatically and chip cracking increases, especially during the pick-up process. Traditional pin driving systems in the pick-up equipment that based on servo-motor and cam mechanisms are difficult to realize precise control of ejecting velocity and impact forces when peeling chips from the blue tape. The research presented in this paper aims at developing a pin driving system based on piezo-stack actuator and flexure mechanism for thin die pick-up process. First, the concept design of the piezo-driven flexure mechanism for the thin die pick-up process is established by comparison with traditional die pick-up equipment. Then, a bridge type flexure mechanism intended for the thin die pick-up process is designed and analyzed. The structure of the flexure mechanism is optimized through a parametric model using response surface method. A prototype of the mechanism is developed and tested. The experimental results are discussed. The flexure mechanism can finally achieve a displacement amplification over 9.
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