推进创伤后癫痫发作分类和生物标记物识别:基于信息分解的多模态融合和可解释的机器学习与缺失的神经影像数据

IF 5.4 2区 医学 Q1 ENGINEERING, BIOMEDICAL
Md Navid Akbar , Sebastian F. Ruf , Ashutosh Singh , Razieh Faghihpirayesh , Rachael Garner , Alexis Bennett , Celina Alba , Marianna La Rocca , Tales Imbiriba , Deniz Erdoğmuş , Dominique Duncan
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引用次数: 0

摘要

创伤后癫痫发作(LPTS)是创伤性脑损伤(TBI)的一种后果,有可能演变为一种终身性疾病,即创伤后癫痫(PTE)。目前,引发创伤性脑损伤患者癫痫发生的机制仍不明确,这促使癫痫学界想方设法预测哪些创伤性脑损伤患者会发展成 PTE,并找出潜在的生物标志物。为了满足这一需求,我们的研究收集了多个参与机构的 48 名创伤性脑损伤患者的全面、纵向多模态数据。我们创建了一个有监督的二元分类任务,将 LPTS 患者的数据与无 LPTS 患者的数据进行对比。为了适应某些受试者缺失的模式,我们采取了双管齐下的方法。首先,我们扩展了基于图形模型的贝叶斯估计器,以直接对模式不完整的受试者进行分类。其次,我们探索了传统的估算技术。然后,按照文献中的几种融合和降维技术,将估算出的多模态信息进行组合,并随后与基于核或树的分类器相匹配。为了实现这种融合,我们提出了两种新算法:相关成分递归消除算法(RECC),该算法根据已选特征之间的相关性过滤信息;信息分解和选择性融合算法(IDSF),该算法能有效地重新组合已分解的多模态特征信息。我们的交叉验证结果表明,根据曲线下面积(AUC)得分,拟议的 IDSF 算法性能更优。最终,经过严格的统计比较和使用最常选择特征的 Shapley 值进行可解释的机器学习检查,我们推荐以下两种磁共振成像(MRI)异常作为潜在的生物标记物:扩散磁共振成像(dMRI)中的内囊左前肢和功能磁共振成像(fMRI)中的右颞中回。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Advancing post-traumatic seizure classification and biomarker identification: Information decomposition based multimodal fusion and explainable machine learning with missing neuroimaging data

A late post-traumatic seizure (LPTS), a consequence of traumatic brain injury (TBI), can potentially evolve into a lifelong condition known as post-traumatic epilepsy (PTE). Presently, the mechanism that triggers epileptogenesis in TBI patients remains elusive, inspiring the epilepsy community to devise ways to predict which TBI patients will develop PTE and to identify potential biomarkers. In response to this need, our study collected comprehensive, longitudinal multimodal data from 48 TBI patients across multiple participating institutions. A supervised binary classification task was created, contrasting data from LPTS patients with those without LPTS. To accommodate missing modalities in some subjects, we took a two-pronged approach. Firstly, we extended a graphical model-based Bayesian estimator to directly classify subjects with incomplete modality. Secondly, we explored conventional imputation techniques. The imputed multimodal information was then combined, following several fusion and dimensionality reduction techniques found in the literature, and subsequently fitted to a kernel- or a tree-based classifier. For this fusion, we proposed two new algorithms: recursive elimination of correlated components (RECC) that filters information based on the correlation between the already selected features, and information decomposition and selective fusion (IDSF), which effectively recombines information from decomposed multimodal features. Our cross-validation findings showed that the proposed IDSF algorithm delivers superior performance based on the area under the curve (AUC) score. Ultimately, after rigorous statistical comparisons and interpretable machine learning examination using Shapley values of the most frequently selected features, we recommend the two following magnetic resonance imaging (MRI) abnormalities as potential biomarkers: the left anterior limb of internal capsule in diffusion MRI (dMRI), and the right middle temporal gyrus in functional MRI (fMRI).

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来源期刊
CiteScore
10.70
自引率
3.50%
发文量
71
审稿时长
26 days
期刊介绍: The purpose of the journal Computerized Medical Imaging and Graphics is to act as a source for the exchange of research results concerning algorithmic advances, development, and application of digital imaging in disease detection, diagnosis, intervention, prevention, precision medicine, and population health. Included in the journal will be articles on novel computerized imaging or visualization techniques, including artificial intelligence and machine learning, augmented reality for surgical planning and guidance, big biomedical data visualization, computer-aided diagnosis, computerized-robotic surgery, image-guided therapy, imaging scanning and reconstruction, mobile and tele-imaging, radiomics, and imaging integration and modeling with other information relevant to digital health. The types of biomedical imaging include: magnetic resonance, computed tomography, ultrasound, nuclear medicine, X-ray, microwave, optical and multi-photon microscopy, video and sensory imaging, and the convergence of biomedical images with other non-imaging datasets.
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