A Low Power 4-Channel Single-Cantilever Metal-Oxide Gas Sensor Cell with Gas Identification Capability

Dongcheng Xie, Ruicheng Liu, G. Adedokun, Feng Wu, Qiang Rong, Lei Xu
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Abstract

This paper presents a low power 4-channel metal-oxide (MOx) gas sensor cell based on a single cantilever, which shows gas identification capability. The cantilever sensor cell was designed and fabricated using MEMS technology, and SnO2 was deposited by sputtering as the sensing layer. Based on the temperature distribution of the cantilever, the four channels have different operating temperatures under a common input heating voltage. All channels show responses to 50 ppm C2H5OH, H2, and NH3 with a total power consumption of 8.55 mW. The response characteristics of the four channels are different under the same input heating voltage, and the response change trend of each channel is also different with different target gas as the input heating voltage changes.
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具有气体识别能力的低功耗4通道单悬臂金属氧化物气体传感器单元
本文提出了一种基于单悬臂梁的低功耗四通道金属氧化物(MOx)气体传感器单元,具有气体识别能力。采用MEMS技术设计制作了悬臂式传感器单元,并采用溅射法沉积SnO2作为传感层。根据悬臂梁的温度分布,在相同的输入加热电压下,四个通道具有不同的工作温度。所有通道对50 ppm的C2H5OH、H2和NH3均有响应,总功耗为8.55 mW。在相同的输入加热电压下,四个通道的响应特性不同,随着输入加热电压的变化,各个通道的响应变化趋势也随目标气体的不同而不同。
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