材料和膜结构对气体传感器微加热器最高温度的影响

M. M. Noor, G. Sugandi, Mohd Faizal Aziz, B. Majlis
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引用次数: 5

摘要

膜材料的选择是设计微加热器的重要环节。膜用作绝缘层,以防止从微加热器散热到基板。同时,微加热器的热特性也受到绝缘层的影响。利用COMSOL 4.2的传热模块,研究了材料和膜结构对气体传感器微加热器最高温度的影响。选择了氮化硅(Si3N4)、二氧化硅(SiO2)和聚酰亚胺三种不同的膜材料以及全膜和桥膜两种膜结构进行研究。介绍了它们对微加热器温度的影响。本研究采用电阻曲径式微加热器。加热器材料为铂。加热器的厚度为2 μm,面积为600 μm × 680 μm。每层膜的厚度为5 μm。全膜和桥膜的面积分别为2500 μm × 2500 μm和850 μm × 850 μm。
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Effects of material and membrane structure on maximum temperature of microheater for gas sensor applications
The material selection for membrane is important in designing a microheater. A membrane is used as an insulator layer to prevent heat dissipation from the microheater to the substrate. At the same time, the thermal characteristic of the microheater is influenced by the insulator layer. A study on the effects of material and membrane structure on the maximum temperature of the microheater for gas sensor applications has been carried out using Heat Transfer Module of COMSOL 4.2. Three different membrane materials namely silicon nitride (Si3N4), silicon dioxide (SiO2) and polyimide and two types of membrane structures namely full-membrane and bridgemembrane have been chosen for the study. Their effects on the microheater temperature are presented. The resistive meander type of microheater is used in this study. The heater material is platinum. The thickness and the area of the heater are 2 μm and 600 μm × 680 μm respectively. The thickness of each membrane is 5 μm. The area of the full-membrane and the bridgemembrane are 2500 μm × 2500 μm and 850 μm × 850 μm respectively.
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