FPGA based ECG Denoising: Current Status and Future Technologies

Abdul Moiz, Aditya Gupta, MD Ashhar Akhtar, Niket Agarwal, Kirti
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Abstract

The electrical action of the heart is recorded by an electrocardiogram signal (ECG). It records the electrical signal in order to check for various heart ailments and disorders. The precise computer analysis of ECG signals is difficult, as being a low-frequency signal, it is exceedingly vulnerable to high-frequency noise and numerous other losses. ECG filtering is therefore a major pre-processing step that attenuates the signal noise and converts it into a signal better suited for analysis. Researchers over a while have given various techniques to correctly detect and filter out the noises. In this paper, a number of state-of-the-art techniques for ECG signal pre-processing using FPGA on MT-BIH Arrhythmia and online datasets are used. There are a number of digital filters categories likewise FIR, IIR, and adaptive filtering techniques are present. The performance of these techniques are analysed on three parameters: Power Consumption, Signal-to-Noise Ratio, and Accuracy. It has been analysed that, the median filter attains the best SNR value by employing Neural Network-based ECG on FPGA board. From the analysis of the papers, we find that the median filter provides the best SNR value, Neural Network-based ECG Anomaly Detection on FPGA technique provides the best accuracy and the combination of FIR LPF & HPF using Kaiser and Bartlett windowing technique provides the lowest power consumption.
基于FPGA的心电去噪:现状与未来技术
心脏的电活动由心电图信号(ECG)记录下来。它记录电信号,以检查各种心脏疾病和紊乱。心电信号作为一种低频信号,极易受到高频噪声和许多其他损失的影响,因此对其进行精确的计算机分析是很困难的。因此,心电滤波是一个主要的预处理步骤,它可以衰减信号噪声并将其转换成更适合分析的信号。一段时间以来,研究人员已经给出了各种技术来正确检测和过滤噪音。在本文中,使用FPGA对MT-BIH心律失常和在线数据集进行心电信号预处理的一些最先进的技术。目前有许多数字滤波器类别,如FIR、IIR和自适应滤波技术。从功耗、信噪比和精度三个方面分析了这些技术的性能。分析表明,在FPGA板上采用基于神经网络的心电信号中值滤波器可获得最佳信噪比。通过对论文的分析,我们发现中值滤波器提供了最好的信噪比值,基于FPGA技术的基于神经网络的心电异常检测提供了最好的精度,使用Kaiser和Bartlett加窗技术的FIR LPF和HPF组合提供了最低的功耗。
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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