Fast Iterative Solution Algorithms in the Frequency-Domain Layered Finite Element Method for Analyzing Integrated Circuits

Feng Sheng, H. Gan, D. Jiao
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引用次数: 2

Abstract

Fast algorithms are developed in this work for solving the system matrix resulting from a frequency-domain layered finite element based analysis of integrated circuits. The frequency-domain layered finite element method represents a 3-D layered system by a 2-D layered system, and further by a single-layered one. The reduced system matrix is generally denser than the original sparse matrix. In this paper, we show that 1) the dense matrix-vector multiplication can be performed in linear complexity; in addition, the reduction cost can be bypassed, 2) an effective preconditioner can be developed to converge the iterative solution of the reduced system matrix in a small number of iterations, and 3) the preconditioner can be solved in linear complexity. As a result, the reduced system matrix can be solved efficiently. The algorithms are rigorous without making any approximation. They apply to any arbitrarily-shaped multilayer structure. Numerical results demonstrated the accuracy, effectiveness, and efficiency of the proposed algorithms in analyzing on-chip circuits.
集成电路频域分层有限元分析中的快速迭代求解算法
在这项工作中,开发了快速算法来求解基于集成电路频域分层有限元分析的系统矩阵。频域分层有限元法用二维分层系统表示三维分层系统,再用单层系统表示单层系统。简化后的系统矩阵通常比原始稀疏矩阵更密集。在本文中,我们证明了1)密集矩阵-向量乘法可以在线性复杂度下进行;此外,可以绕过约简代价,2)可以开发有效的预条件,在少量迭代中收敛约简系统矩阵的迭代解,3)预条件可以在线性复杂度中求解。这样可以有效地求解化简后的系统矩阵。算法是严格的,没有做任何近似。它们适用于任意形状的多层结构。数值结果证明了所提算法在分析片上电路时的准确性、有效性和高效性。
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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来源期刊
IEEE Transactions on Advanced Packaging
IEEE Transactions on Advanced Packaging 工程技术-材料科学:综合
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