Richard M McKearney, David M Simpson, Steven L Bell
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引用次数: 0
摘要
目的比较经训练可标记听性脑干反应(ABR)波形的峰值 I、III 和 V 的精选机器学习算法的性能。另外还训练了一种算法,以提供与 ABR 波延迟估计相关的置信度:设计:对之前发布的 ABR 数据集进行二次数据分析。在嵌套 k 倍交叉验证程序中对五种机器学习算法进行了比较:研究样本:使用了一组 482 个阈上 ABR 波形。研究样本:使用了一组 482 个阈上 ABR 波形,这些波形记录自 81 名听阈在正常范围内的参与者:结果:卷积递归神经网络(CRNN)的表现优于其他评估算法。该算法标记的 95.9% 的 ABR 波在目标波的±0.1 毫秒范围内。平均绝对误差为 0.025 毫秒,这是嵌套交叉验证程序外层验证褶皱的平均值。高置信度通常与更高的波标记准确性相关:机器学习算法有可能帮助临床医生进行 ABR 解释。目前的工作确定了一种很有前景的机器学习方法,但任何用于临床实践的算法都需要在一个大型、准确标记的异构数据集上进行训练,并在后续工作中在临床环境中进行评估。
Automated wave labelling of the auditory brainstem response using machine learning.
Objective: To compare the performance of a selection of machine learning algorithms, trained to label peaks I, III, and V of the auditory brainstem response (ABR) waveform. An additional algorithm was trained to provide a confidence measure related to the ABR wave latency estimates.
Design: Secondary data analysis of a previously published ABR dataset. Five types of machine learning algorithm were compared within a nested k-fold cross-validation procedure.
Study sample: A set of 482 suprathreshold ABR waveforms were used. These were recorded from 81 participants with audiometric thresholds within normal limits.
Results: A convolutional recurrent neural network (CRNN) outperformed the other algorithms evaluated. The algorithm labelled 95.9% of ABR waves within ±0.1 ms of the target. The mean absolute error was 0.025 ms, averaged across the outer validation folds of the nested cross-validation procedure. High confidence levels were generally associated with greater wave-labelling accuracy.
Conclusions: Machine learning algorithms have the potential to assist clinicians with ABR interpretation. The present work identifies a promising machine learning approach, but any algorithm to be used in clinical practice would need to be trained on a large, accurately labelled, heterogeneous dataset and evaluated in clinical settings in follow-on work.
期刊介绍:
International Journal of Audiology is committed to furthering development of a scientifically robust evidence base for audiology. The journal is published by the British Society of Audiology, the International Society of Audiology and the Nordic Audiological Society.