Development of CMOS based gas sensors

R. Kumar, S. A. Imam, M. R. Khan
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Abstract

In this paper we review the development of CMOS compatible sensors for detection of injurious chemical compounds present in gas. Among the most serious limitations facing the success of future consumer gas identification systems are the drift problem and the real-time detection due to the slow response of most of today's gas sensors. We reviewed gas identification approach based on a microelectronic gas sensors technology and GMM. And found that performance is achieved using GMM with a success rate of 94% obtained for different principal components which is much better response with respect to other well known traditional as well as advanced pattern recognition algorithms such as KNN, MLP, SVM, and PPCA. This points out to an important result, which suggests that higher generalization performance can be obtained by using feature reduction and selection techniques as preprocessing techniques. Using the operating temperature as a parameter to tune the selectivity of the sensor chip to different target gases was also proven to be an effective way to improve performance of the overall system. This approach is able to overcome drift problem.
基于CMOS的气体传感器的开发
本文综述了用于检测气体中有害化合物的CMOS兼容传感器的研究进展。未来消费者气体识别系统成功面临的最严重限制之一是漂移问题和实时检测,这是由于当今大多数气体传感器的响应缓慢造成的。本文综述了基于微电子气体传感器技术和GMM的气体识别方法。并发现使用GMM可以实现性能,对于不同的主成分获得了94%的成功率,这比其他众所周知的传统和先进的模式识别算法(如KNN, MLP, SVM和PPCA)的响应要好得多。这指出了一个重要的结果,表明使用特征约简和选择技术作为预处理技术可以获得更高的泛化性能。利用工作温度作为参数来调整传感器芯片对不同目标气体的选择性也被证明是提高整个系统性能的有效方法。这种方法能够克服漂移问题。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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