利用脑电图信号检测癫痫发作

Zakareya Lasefr, Sai Shiva V. N. R. Ayyalasomayajula, K. Elleithy
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引用次数: 27

摘要

癫痫是一种神经系统疾病,被认为是一种以失去意识和抽搐为特征的中枢神经系统紊乱。癫痫病人的癫痫发作是由异常的放电引起的,这种放电会导致数不清的运动、抽搐和意识丧失。全世界约有5000万人被诊断患有癫痫,65-70岁的儿童和成人受影响最大。虽然本病的主要原因尚不清楚,但是,癫痫发作的大部分症状是可以通过药物治疗的。癫痫病人的癫痫发作会导致无法控制的运动和意识丧失,这可能导致严重的伤害,有时甚至死亡。因此,计算机化的癫痫检测技术是癫痫患者在癫痫发作时保护他们免受危险的重要解决方案。在本文中,我们提出了一种可以在硬件设备中实现的癫痫发作检测方法,以帮助癫痫患者。脑电图(EEG)被广泛认为是诊断和评估大脑活动和疾病的工具。我们的研究利用了EEG数据集,该数据集用于癫痫检测的各种研究。首先对脑电信号进行时域和频域处理,采用切比雪夫滤波对信号进行预处理,然后利用小波分析将滤波后的信号在时域和频域分别分解为5个子带。然而,我们只使用Delta子带进行进一步处理。采用离散小波变换进行特征提取,然后进行阈值分割,确定信号中的噪声部分。此外,我们将一些广泛使用的分类器应用于癫痫发作检测,并将我们的结果与其他方法进行比较。
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Epilepsy seizure detection using EEG signals
Epilepsy is a neurological disease that is referred to as a disorder of the central nervous system characterized by the loss of consciousness and convulsions. Epileptic patients are subject to epileptic seizures caused by abnormal electrical discharges that lead to uncountable movements, convulsions and the loss of consciousness. Approximately 50 million people around the world are diagnosed with epilepsy, children and adults in the age range of 65–70 years old are effected the most. Although the main cause of this disease is unknown, however, most of the symptoms of the epilepsy seizure can be medically treated. Epileptic patients are subject to seizures that cause uncontrollable movements and loss of consciousness which can lead to serious injuries, and sometimes death. As a result, computerized seizure detection techniques are vital solutions for epileptic patients to protect them from dangers at the time of a seizure. In this paper, we propose an epilepsy seizures detecting method that can be implemented in a hardware device to help epileptic patients. The Electroencephalogram (EEG) is widely recognized for diagnosing and assessing brain activities and disorder. Our study utilized an EEG datasets that is used in various research regarding epilepsy detection. We processed the EEG signal in both time and frequency domains and applied a Chebyschev filter for preprocessing the signal, then, by using Wavelet Analysis, we decomposed the filtered signal into five sub-bands in both time and frequency domain. However, we only used the Delta sub-band for further processing. Discrete Wavelet Transform was used for feature extraction, then thresholding was implemented in order to determine the noisy part of the signal. Moreover, we applied some widely used classifiers for epilepsy seizure detection, and compared our results with other approches.
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