Customizable silicone materials for MEMS and semiconductor packages

W. Yao, R. Peddi
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引用次数: 3

Abstract

Micro Electro Mechanical Systems (MEMS) are enabling the merger of various sensing capabilities into a single device, and are used in many different applications. Largely employed in the handheld sector, which is driving MEMS growth, smartphones today can contain as many as ten to twelve - or even more - MEMS devices, with this number projected to grow in the coming years. Automotive integration of MEMS is also in the fast lane. Pressure sensors, speed sensors, air flow sensors, GPS systems and accelerometers - all are driven by MEMS and are critical elements to proper automobile function and efficiency. Manufacturing MEMS devices is a balancing act, as MEMS die are very sensitive and fragile. Too much stress from die bonding may crack the die and, if the bonding adhesive's modulus is high, the die can bend due to stress. This flex can cause the moving parts of the MEMS to go out of calibration. To accommodate these stress and modulus challenges, a silicone material technology for MEMS devices which offers a low and stable modulus across the reflow profile has been developed. The material has no bleed and higher adhesion strength than previous-generation adhesives and is completely customizable. The unique Silicone platform has been developed with the freedom to adjust not only the rheological properties, but other key material properties such as modulus as well. Different color samples can also be developed based on product requirements.
可定制的有机硅材料,用于MEMS和半导体封装
微机电系统(MEMS)能够将各种传感功能合并到单个设备中,并用于许多不同的应用。在推动MEMS增长的手持设备领域,今天的智能手机可以包含多达10到12个甚至更多的MEMS设备,预计这一数字将在未来几年增长。汽车集成MEMS也进入了快车道。压力传感器、速度传感器、气流传感器、GPS系统和加速度计——所有这些都由MEMS驱动,是汽车正常功能和效率的关键因素。制造MEMS器件是一种平衡行为,因为MEMS芯片非常敏感和脆弱。模具粘接产生的应力过大可能导致模具开裂,如果粘接胶的模量过高,模具会因应力而弯曲。这种弯曲会导致MEMS的运动部件无法校准。为了适应这些应力和模量的挑战,MEMS器件的硅酮材料技术已经开发出来,该技术在回流曲线上提供低而稳定的模量。与上一代粘合剂相比,该材料无渗漏,附着力更高,完全可定制。独特的硅胶平台不仅可以自由调整流变性能,还可以自由调整其他关键材料性能,如模量。也可根据产品要求开发不同颜色的样品。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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