材料科学
压阻效应
兴奋剂
压力传感器
光电子学
硅
微电子机械系统
杂质
图层(电子)
温度测量
压力测量
扩散
大气温度范围
电子工程
电气工程
热的
响应时间
复合材料
作者
Yuanying Zhang,Binghe Ma,Xiaojing Wang,Jinjun Deng,Xingxu Zhang,Jian Luo,Feng Liu,Yunzhe Liu,Tao Zhang
标识
DOI:10.1109/mems64181.2026.11419578
摘要
The zero drift is a key factor affecting the measurement accuracy of the piezoresistive pressure sensor at 500° C. This report presents for the first time the high-temperature piezoresistive pressure sensor fabricated by in-situ doping technology. Device layers of appropriate concentration are directly grown through in-situ doping technology. There is no need to perform ion implantation or thermal diffusion of new impurity elements into the silicon of the device layer again. At 500° C for 8 hours, the zero drift of the sensor has reached an outstanding$218 \mu \mathrm{V}$. After linear temperature compensation, the pressure measurement error within the entire temperature range reached$\pm 1.83 \%$FS. The in-situ doping type pressure sensor not only improves the temperature stability at high temperatures, but also promotes the development of MEMS high-temperature pressure sensors towards the direction of high performance.
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