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Full-wave electromagnetic and thermal modeling for the prediction of heat-dissipation-induced RF-MEMS switch failure
Jensen, Brian D.; Chow, Linda L. W.; Volakis, John Leonidas; Wang, Zhongde; Saitou, Kazuhiro; Kurabayashi, Katsuo
2006-01-01
Citation:Wang, Zhongde; Jensen, Brian D; Chow, Linda L W; Volakis, John L; Saitou, Kazuhiro; Kurabayashi, Katsuo (2006). "Full-wave electromagnetic and thermal modeling for the prediction of heat-dissipation-induced RF-MEMS switch failureThis work was supported in part by the National Science Foundation under grant no ECS-01152222.." Journal of Micromechanics and Microengineering. 16(1): 157-164. <http://hdl.handle.net/2027.42/49047>
Abstract: We propose an extended finite element-boundary integral method (EFE-BI) to model the electromagnetic (EM) behavior of RF-MEMS switches over a wide frequency range from UHF to terahertz. Our new method integrates EM with finite element heat transfer analysis to extract heat dissipation on the micrometer-scale switch beam due to the non-uniform radio frequency (RF) current distribution. The developed EFE-BI technique is an extension of the standard finite element-boundary integral (FE-BI) method to allow for accurate characterization of RF-MEMS structures whose entire size is a small fraction of a wavelength (λ/250 or less) and may contain dimensions in the order of λ/50 000 or less. Our model predictions exhibit good agreement with experimental results obtained independent of the current study.