微波毫米波复杂大规模集成电路的高性能全波算法是国际计算电磁学领域的研究热点和难点。积分方程矩量法作为分析此类结构的重要方法，具有几何建模难度低、未知量数目少、矩阵方程稳定的优势，但同时也伴有Green函数计算耗时、垂直结构计算量大、并行框架不明显的劣势。本项目基于GPU/CPU异构平台，针对此类问题提出高性能求解方案，将开展以下研究：1）分层媒质空域并矢Green函数及积分方程矩量法的高性能计算，2）分层媒质毫米波高频段复杂多通孔互联结构的高性能计算，3）分层媒质结构中超大规模稠密矩阵压缩算法和共轭梯度-快速傅立叶变换算法的高性能计算；并分别结合毫米波平面反射阵列天线、毫米波超宽带分布式放大器中的多端口耦合微带线及复杂多通孔结构进行几何建模、仿真计算、数值校准和实验测试，最终建立分层媒质大规模集成电路及芯片的高性能求解方案。

The full wave analysis of large scale microwave and millimeter wave integrated circuits have been a hotspot in the area of computational electromagnetics. As one of the most important algorithm, IE-MoM has the advantages in geometric modeling, less of unknowns and stability of matrix equation, however, it still has disadvantages in computational cost, especially in multilayered vertical interconnects, and parallel mainframe. Based on the GPU/CPU heterogeneous platform for high performance computing (HPC), this project plans to make developments in the following aspects: 1. HPC scheme for multilayered Green’s functions and IE-MoM, 2. HPC scheme for millimeter wave multiple interconnects in multilayered structures, 3. HPC scheme for very large scale dense matrix solution with ACA and CG-FFT algorithms. Besides these, a millimeter wave planar Reflectarray antenna and a distributed power amplifier will be designed and simulated by using the proposed HPC algorithms, including geometric modeling, numerical simulation, numerical calibration and measurements. Corresponding HPC schemes will be released for the fast full wave analysis of complicated large scale microwave and millimeter wave circuits in multilayered structures.