Successive network reduction method for parametric transient results

M. Németh, A. Poppe
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引用次数: 2

Abstract

In this paper we present a new, direct computational method for calculating the complex thermal transfer impedances between two separate locations of a given physical structure aimed at the implementation into a field-solver based on the SUNRED (SUccessive Node REDuction) algorithm. We tested the method with a simple 2D example containing 125 internal nodes. For testing the proposed new calculation method multiple combinations of Dirichlet and Neumann type boundary conditions were applied. Also, different types of thermal loads such as prescribed unit-step change in dissipation or temperature were assumed (for time domain transient analysis). The test case was also studied with the assumption of sinusoidal dissipation. Results obtained by the proposed new calculation method and results obtained by conventional simulations differ less than the uncertainty of the traditional solution method. The good agreement enables us to use the balanced truncation method to reduce the order of the transfer functions with low computational cost.
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参数暂态结果的逐次网络约简方法
在本文中,我们提出了一种新的直接计算方法,用于计算给定物理结构的两个独立位置之间的复杂热传递阻抗,旨在实现基于SUNRED(连续节点缩减)算法的场求解器。我们用一个包含125个内部节点的简单2D示例测试了该方法。为了验证所提出的新计算方法,应用了Dirichlet型和Neumann型边界条件的多个组合。此外,还假设了不同类型的热负荷,如耗散或温度的规定单位阶跃变化(用于时域瞬态分析)。在正弦耗散假设下,对试验用例进行了研究。计算结果与常规模拟结果的不确定性差异小于传统求解方法的不确定性。这种良好的一致性使我们能够使用平衡截断法降低传递函数的阶数,并且计算成本低。
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