Yu Wei, Cheng Shucan, Li Zeyuan, Liu Li, Zhang Zhaofu, Zhao Yanpu, Guo Yuzheng, Liu Sheng
School of Electrical Engineering and Automation, Wuhan University, Wuhan 430072, China.
School of Power and Mechanical Engineering, Wuhan University, Wuhan 430072, China.
Fundam Res. 2024 Apr 16;4(6):1442-1454. doi: 10.1016/j.fmre.2024.04.004. eCollection 2024 Nov.
Electronic packaging is an essential branch of electronic engineering that aims to protect electronic, microelectronic, and nanoelectronic systems from environmental conditions. The design of electronic packaging is highly complex and requires the consideration of multi-physics phenomena, such as thermal transport, electromagnetic fields, and mechanical stress. This review presents a comprehensive overview of the multiphysics coupling of electric, magnetic, thermal, mechanical, and fluid fields, which are crucial for assessing the performance and reliability of electronic devices. The recent advancements in multi-scale simulation techniques are also systematically summarized, such as finite element methods at the macroscopic scale, molecular dynamics and density functional theory at the microscopic scale, and particularly machine learning methods for bridging different scales. Additionally, we illustrate how these methods can be applied to study various aspects of electronic packaging, such as material properties, interfacial failure, thermal management, electromigration, and stress analysis. The challenges and the potential applications of multi-scale simulation techniques in electronic packaging are also highlighted. Further, some future directions for multi-scale simulation techniques in electronic packaging are concluded for further investigation.
电子封装是电子工程的一个重要分支,旨在保护电子、微电子和纳米电子系统免受环境条件的影响。电子封装的设计高度复杂,需要考虑多物理现象,如热传输、电磁场和机械应力。本文综述了电场、磁场、热场、机械场和流场的多物理场耦合,这对于评估电子器件的性能和可靠性至关重要。还系统总结了多尺度模拟技术的最新进展,如宏观尺度的有限元方法、微观尺度的分子动力学和密度泛函理论,特别是用于连接不同尺度的机器学习方法。此外,我们说明了这些方法如何应用于研究电子封装的各个方面,如材料性能、界面失效、热管理、电迁移和应力分析。还强调了多尺度模拟技术在电子封装中的挑战和潜在应用。此外,总结了电子封装中多尺度模拟技术的一些未来发展方向以供进一步研究。