Electromagnetic-Circuital-Thermal-Mechanical Multiphysics Numerical Simulation Method for Microwave Circuits

IF 1.8 Q3 ENGINEERING, ELECTRICAL & ELECTRONIC
Huan Huan Zhang;Zheng Lang Jia;Peng Fei Zhang;Ying Liu;Li Jun Jiang;Da Zhi Ding
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引用次数: 0

Abstract

A electromagnetic-circuital-thermal-mechanical mu- ltiphysics numerical method is proposed for the simulation of microwave circuits. The discontinuous Galerkin time-domain (DGTD) method is adopted for electromagnetic simulation. The time-domain finite element method (FEM) is utilized for thermal simulation. The circuit equation is applied for circuit simulation. The mechanical simulation is also carried out by FEM method. A flexible and unified multiphysics field coupling mechanism is constructed to cover various electromagnetic, circuital, thermal and mechanical multiphysics coupling scenarios. Finally, three numerical examples emulating outer space environment, intense electromagnetic pulse (EMP) injection and high power microwave (HPM) illumination are utilized to demonstrate the accuracy, efficiency, and capability of the proposed method. The proposed method provides a versatile and powerful tool for the design and analysis of microwave circuits characterized by intertwined electromagnetic, circuital, thermal and stress behaviors.
微波电路的电磁-电路-热学-力学多物理场数值模拟方法
提出了一种用于微波电路仿真的电磁-电路-热-机械数值方法。电磁仿真采用非连续伽勒金时域(DGTD)方法。热仿真采用时域有限元法(FEM)。电路仿真采用电路方程。机械仿真也采用有限元法。构建了灵活统一的多物理场耦合机制,以涵盖各种电磁、电路、热和机械多物理耦合情况。最后,利用模拟外太空环境、强电磁脉冲(EMP)注入和高功率微波(HPM)照明的三个数值示例,展示了所提方法的准确性、效率和能力。所提出的方法为设计和分析具有电磁、电路、热和应力行为交织特点的微波电路提供了一个多功能的强大工具。
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来源期刊
CiteScore
4.30
自引率
0.00%
发文量
27
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