Electronic Nose for detecting Acetone as a Potential Precursor in Triacetone Triperoxide (TATP)-based Improvised Explosive Devices (IEDs)

A. Yumang, A. Paglinawan, J. Andres, Renz Jerome De Leon, Jon Christian Dela Cruz, Christian Kyle Floresta
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引用次数: 2

Abstract

The paper aims to fabricate an electronic nose for detecting volatile organic compounds (VOCs) emitted by acetone as a potential precursor of Triacetone Triperoxide (TATP) using Artificial Neural Network (ANN) and Principal Component Analysis (PCA). Specifically, it aims to build an array of sensors aided with Raspberry Pi and Python programming language to implement the necessary algorithms, together with the documentation of gathered information to conclude the effectiveness of the system. ANN is used for pattern recognition and classification, while PCA is for feature reduction and extraction. Sensors are selected by PCA through dimension reduction of signals obtained, which resulted to sensors MQ8, MQ136, MQ7 having the highest retained information of 83.07%, 8.79% and 7.27%. The classifier was trained by feeding acetone with varying concentrations from 5% to 100% with their corresponding expected classifications that resulted to 0.02% of training error. Using a Confusion matrix, accuracy was determined which assesses the classification between the E-nose and expected classification of commercial products. This study concludes that the fabrication of E-nose with PCA and ANN algorithms produces promising results of classifying acetone as a potential TATP precursor, with an overall accuracy of 87.88%.
基于三过氧化三丙酮(TATP)的简易爆炸装置(ied)中丙酮潜在前体的电子鼻检测
本文旨在利用人工神经网络(ANN)和主成分分析(PCA)制备一种电子鼻,用于检测丙酮释放的挥发性有机化合物(VOCs),丙酮是三过氧三丙酮(TATP)的潜在前体。具体来说,它旨在用树莓派和Python编程语言辅助构建一系列传感器来实现必要的算法,以及收集信息的文档来总结系统的有效性。人工神经网络用于模式识别和分类,主成分分析用于特征约简和提取。通过对得到的信号进行降维,通过主成分分析选择传感器,得到传感器MQ8、MQ136、MQ7的信息保留率最高,分别为83.07%、8.79%和7.27%。通过添加浓度为5% ~ 100%的丙酮对分类器进行训练,训练误差为0.02%。使用混淆矩阵,确定准确性,评估电子鼻和商业产品的预期分类之间的分类。本研究得出结论,用PCA和ANN算法制作电子鼻,对丙酮作为潜在的TATP前体进行分类的结果很有希望,总体准确率为87.88%。
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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