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Integrated surface acoustic-wave and semiconducting-metal-oxide sensor array

机译:集成的表面声波和半导体金属氧化物传感器阵列

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Abstract: Gas sensor development traditionally focuses on a single sensing platform that is optimized for a specific task. An ideal sensor is one that is completely sensitive as well as selective to the target gas of interest while being non- sensitive to interferent gases. Unfortunately, ideal sensors do not exist. Sensor arrays expand on the single sensor concept by incorporating a number of sensor utilizing the same sensing technology to provide a fingerprint of the particular measurand. Multiple sensor response are then analyzed with pattern recognition techniques such as neural networks. The limitation with single technology design methods is that single sensor limitations propagate. A sensor technology effective in detecting specific measurands may not be sensitive to related measurands. A novel sensor approach is underway that incorporates two sensing techniques, surface acoustic wave (SAW) and SMO, into an array of arrays. This integrated sensor array can provide marked improvements over either array alone in the increased bandwidth of measurands, the capability of cross verifying result with complimentary sensor technology responses, and the performance in the presence of interferents. Difficulties arise in the management, coordination and signal processing of the two methods. This is due to the fact that SAW_based sensor responded via a change in frequency, while SMO-based sensor response via a change in resistance. Each of these changes vary in magnitude proportional to the amount of analyte present. This paper will focus on aspects of: sensor selection, sensor data collection, manipulation, management, and processing for an integrated SAW and SMO sensor array. !69
机译:摘要:气体传感器的开发传统上专注于针对特定任务进行了优化的单个传感平台。理想的传感器是对目标目标气体完全敏感且具有选择性,而对干扰气体不敏感的传感器。不幸的是,不存在理想的传感器。传感器阵列通过合并使用相同传感技术的多个传感器来提供特定被测对象的指纹,从而扩展了单个传感器的概念。然后使用模式识别技术(例如神经网络)分析多传感器响应。单一技术设计方法的局限性在于会传播单一传感器的局限性。有效检测特定被测量物的传感器技术可能对相关被测量物不敏感。正在开发一种新颖的传感器方法,该方法将两种传感技术(表面声波(SAW)和SMO)结合到阵列中。这种集成的传感器阵列可以在单独的两个阵列上提供显着的改进,包括增加被测带宽,具有互补传感器技术响应的交叉验证结果以及在存在干扰物的情况下的性能。两种方法的管理,协调和信号处理都出现了困难。这是由于基于SAW_的传感器通过频率变化做出响应,而基于SMO的传感器通过电阻变化做出响应这一事实。这些变化中的每一个变化都与存在的分析物的量成比例地变化。本文将重点关注以下方面:集成SAW和SMO传感器阵列的传感器选择,传感器数据收集,操纵,管理和处理。 !69

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