基于频率相关宏观模型的MEMS气体阻尼和弹簧现象建模

Y. Yang, M. Kamon, V. Rabinovich, Chahid K. Ghaddar, M. Deshpande, K. Greiner, J. Gilbert
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引用次数: 23

摘要

本文提出了一种用于任意形状MEMS器件的气体阻尼和弹簧效应的高效宏模型提取技术。该技术采用基于arnoldi的模型降阶算法,从线性化雷诺方程的有限元近似中生成低阶模型。我们证明了这种生成频率相关气体阻尼模型的方法比以前使用瞬态有限元求解器求解线性化雷诺方程的方法快100倍以上。低阶气体阻尼模型可以很容易地插入到系统级建模包中进行瞬态和频率分析。模拟结果与四种不同器件的实验结果吻合较好。
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Modeling gas damping and spring phenomena in MEMS with frequency dependent macro-models
In this paper, we present an efficient macromodel extraction technique for gas damping and spring effects for arbitrarily shaped MEMS devices. The technique applies an Arnoldi-based model-order-reduction algorithm to generate low-order models from an FEM approximation of the linearized Reynolds equation. We demonstrate that this approach for generating the frequency-dependent gas-damping model is more than 100 times faster than previous approaches, which solve the linearized Reynolds equation using a transient FEM solver. The low-order gas-damping model can be easily inserted into a system-level modeling package for transient and frequency analysis. The simulated results are in good agreement with experimental results for four different devices.
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