OxcarNet: Sinc convolutional network with temporal and channel attention for prediction of Oxcarbazepine monotherapy responses in patients with newly diagnosed epilepsy.

IF 3.7 3区 医学 Q2 ENGINEERING, BIOMEDICAL
Runkai Zhang,Rong Rong,Yun Xu,Haixian Wang,Xiaoyun Wang
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Approach: We introduce OxcarNet, an end-to-end neural network framework developed to predict treatment outcomes in patients undergoing oxcarbazepine monotherapy. The proposed predictive model adopts a Sinc Module in its initial layers for adaptive identification of discriminative frequency bands. The derived feature maps are then processed through a Spatial Module, which characterizes the scalp distribution patterns of the electroencephalography (EEG) signals. Subsequently, these features are fed into an attention-enhanced Temporal Module to capture temporal dynamics and discrepancies. A Channel Module with an attention mechanism is employed to reveal inter-channel dependencies within the output of the temporal module, ultimately achieving response prediction. OxcarNet was rigorously evaluated using a proprietary dataset of retrospectively collected EEG data from newly diagnosed epilepsy patients at Nanjing Drum Tower Hospital. This dataset included patients who underwent long-term EEG monitoring in a clinical inpatient setting.
Main results: OxcarNet demonstrated exceptional accuracy in predicting treatment outcomes for patients undergoing Oxcarbazepine monotherapy. In the ten-fold cross-validation, the model achieved an accuracy of 97.27%, and in the validation involving unseen patient data, it maintained an accuracy of 89.17%, outperforming six conventional machine learning methods and three generic neural decoding networks. These findings underscore the model's effectiveness in accurately predicting the treatment responses in patients with newly diagnosed epilepsy. The analysis of features extracted by the Sinc filters revealed a predominant concentration of predictive frequencies in the high-frequency range of the gamma band.
Significance: The findings of our study offer substantial support and new insights into tailoring early AED selection, enhancing the prediction accuracy for the responses of AEDs.

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引用次数: 0

Abstract

Monotherapy with antiepileptic drugs (AEDs) is the preferred strategy for the initial treatment of epilepsy. However, an inadequate response to the initially prescribed AED is a significant indicator of a poor long-term prognosis, emphasizing the importance of precise prediction of treatment outcomes with the initial AED regimen in patients with epilepsy. Approach: We introduce OxcarNet, an end-to-end neural network framework developed to predict treatment outcomes in patients undergoing oxcarbazepine monotherapy. The proposed predictive model adopts a Sinc Module in its initial layers for adaptive identification of discriminative frequency bands. The derived feature maps are then processed through a Spatial Module, which characterizes the scalp distribution patterns of the electroencephalography (EEG) signals. Subsequently, these features are fed into an attention-enhanced Temporal Module to capture temporal dynamics and discrepancies. A Channel Module with an attention mechanism is employed to reveal inter-channel dependencies within the output of the temporal module, ultimately achieving response prediction. OxcarNet was rigorously evaluated using a proprietary dataset of retrospectively collected EEG data from newly diagnosed epilepsy patients at Nanjing Drum Tower Hospital. This dataset included patients who underwent long-term EEG monitoring in a clinical inpatient setting. Main results: OxcarNet demonstrated exceptional accuracy in predicting treatment outcomes for patients undergoing Oxcarbazepine monotherapy. In the ten-fold cross-validation, the model achieved an accuracy of 97.27%, and in the validation involving unseen patient data, it maintained an accuracy of 89.17%, outperforming six conventional machine learning methods and three generic neural decoding networks. These findings underscore the model's effectiveness in accurately predicting the treatment responses in patients with newly diagnosed epilepsy. The analysis of features extracted by the Sinc filters revealed a predominant concentration of predictive frequencies in the high-frequency range of the gamma band. Significance: The findings of our study offer substantial support and new insights into tailoring early AED selection, enhancing the prediction accuracy for the responses of AEDs. .
OxcarNet:具有时间和通道注意力的 Sinc 卷积网络,用于预测新诊断癫痫患者对奥卡西平单药治疗的反应。
抗癫痫药物(AED)单药治疗是癫痫初始治疗的首选策略。然而,对最初处方的 AED 反应不充分是长期预后不良的一个重要指标,这就强调了精确预测癫痫患者最初 AED 方案治疗结果的重要性:我们介绍了 OxcarNet,这是一个端到端神经网络框架,用于预测接受奥卡西平单药治疗的患者的治疗效果。该预测模型的初始层采用了 Sinc 模块,用于自适应识别辨别频带。得出的特征图随后通过空间模块进行处理,该模块用于描述脑电图(EEG)信号的头皮分布模式。随后,这些特征被送入注意力增强的时间模块,以捕捉时间动态和差异。具有注意力机制的通道模块用于揭示时间模块输出中的通道间依赖关系,最终实现反应预测。OxcarNet 使用南京鼓楼医院新诊断的癫痫患者回顾性收集的脑电图数据集进行了严格评估。该数据集包括在临床住院环境中长期接受脑电图监测的患者:OxcarNet在预测接受奥卡西平单药治疗的患者的治疗结果方面表现出了极高的准确性。在十倍交叉验证中,该模型的准确率达到了 97.27%;在涉及未见患者数据的验证中,该模型的准确率保持在 89.17%,优于六种传统机器学习方法和三种通用神经解码网络。这些结果表明,该模型能有效准确地预测新诊断癫痫患者的治疗反应。对 Sinc 滤波器提取的特征进行分析后发现,预测频率主要集中在伽马频段的高频范围:我们的研究结果为定制早期 AED 选择、提高 AED 反应预测准确性提供了大量支持和新见解。
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来源期刊
Journal of neural engineering
Journal of neural engineering 工程技术-工程:生物医学
CiteScore
7.80
自引率
12.50%
发文量
319
审稿时长
4.2 months
期刊介绍: The goal of Journal of Neural Engineering (JNE) is to act as a forum for the interdisciplinary field of neural engineering where neuroscientists, neurobiologists and engineers can publish their work in one periodical that bridges the gap between neuroscience and engineering. The journal publishes articles in the field of neural engineering at the molecular, cellular and systems levels. The scope of the journal encompasses experimental, computational, theoretical, clinical and applied aspects of: Innovative neurotechnology; Brain-machine (computer) interface; Neural interfacing; Bioelectronic medicines; Neuromodulation; Neural prostheses; Neural control; Neuro-rehabilitation; Neurorobotics; Optical neural engineering; Neural circuits: artificial & biological; Neuromorphic engineering; Neural tissue regeneration; Neural signal processing; Theoretical and computational neuroscience; Systems neuroscience; Translational neuroscience; Neuroimaging.
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