Electroencephalography estimates brain age in infants with high precision: Leveraging advanced machine learning in healthcare

IF 4.7 2区 医学 Q1 NEUROIMAGING
Saeideh Davoudi , Gabriela Lopez Arango , Florence Deguire , Inga Sophie Knoth , Fanny Thebault-Dagher , Rebecca Reh , Laurel Trainor , Janet Werker , Sarah Lippé
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引用次数: 0

Abstract

Changes in the pace of neurodevelopment are key indicators of atypical maturation during early life. Unfortunately, reliable prognostic tools rely on assessments of cognitive and behavioral skills that develop towards the second year of life and after. Early assessment of brain maturation using electroencephalography (EEG) is crucial for clinical intervention and care planning. We developed a reliable methodology using conventional machine learning (ML) and novel deep learning (DL) networks to efficiently quantify the difference between chronological and biological age, so-called brain age gap (BAG) as a marker of accelerated/decelerated biological brain development. In this cross-sectional study, EEG from 219 typically-developing infants aged from three to 14-months was used. For DL networks, the input samples were increased to 2628 recordings. We further validated the BAG tool in a population at clinical risk with abnormal brain growth (macrocephaly) to capture deviation from normal aging. Our results indicate that DL networks outperform conventional ML models, capturing complex non-monotonic EEG characteristics and predicting the biological age with a mean absolute error of only one month (MAE = 1 month, 95 %CI:0.88–1.15, r = 0.82, 95 %CI:0.78–0.85). Additionally, the developing brain follows a trajectory characterized by increased non-linearity and complexity in which alpha rhythm plays an important role. BAG could detect group-level maturational delays between typically-developing and macrocephaly (pvalue=0.009). In macrocephaly, BAG negatively correlated with the general adaptive composite of the ABAS-II (pvalue=0.04) at 18-months and the information processing speed scale of the WPSSI-IV at age four (pvalue=0.006). The EEG-based BAG score offers a reliable non-invasive measure of brain maturation, with significant advantages and implications for developmental neuroscience and clinical practice.
脑电图高精度估计婴儿脑年龄:利用医疗保健中的先进机器学习
神经发育速度的变化是生命早期非典型成熟的关键指标。不幸的是,可靠的预后工具依赖于对第二年及以后发展的认知和行为技能的评估。使用脑电图(EEG)早期评估脑成熟对临床干预和护理计划至关重要。我们开发了一种可靠的方法,使用传统的机器学习(ML)和新颖的深度学习(DL)网络来有效地量化实足年龄和生物年龄之间的差异,即所谓的脑年龄差距(BAG),作为大脑生物发育加速/减速的标志。在这项横断面研究中,使用了219名3至14个月的典型发育婴儿的脑电图。对于深度学习网络,输入样本增加到2628个记录。我们进一步验证了BAG工具在具有异常脑生长(大头畸形)的临床风险人群中的应用,以捕获与正常衰老的偏差。我们的研究结果表明,深度学习网络优于传统的ML模型,捕获复杂的非单调脑电图特征,预测生物年龄的平均绝对误差仅为一个月(MAE = 1个月,95% CI: 0.88-1.15, r = 0.82, 95% CI: 0.78-0.85)。此外,发育中的大脑遵循一个以增加非线性和复杂性为特征的轨迹,其中α节律起着重要作用。BAG可以检测到典型发育型和大头畸形之间群体水平的成熟延迟(p值=0.009)。在大头畸形中,BAG与18月龄时ABAS-II的一般适应性综合评分(pvalue=0.04)和4岁时wpsi - iv的信息处理速度量表(pvalue=0.006)呈负相关。基于脑电图的BAG评分提供了一种可靠的无创脑成熟测量方法,在发育神经科学和临床实践中具有显著的优势和意义。
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来源期刊
NeuroImage
NeuroImage 医学-核医学
CiteScore
11.30
自引率
10.50%
发文量
809
审稿时长
63 days
期刊介绍: NeuroImage, a Journal of Brain Function provides a vehicle for communicating important advances in acquiring, analyzing, and modelling neuroimaging data and in applying these techniques to the study of structure-function and brain-behavior relationships. Though the emphasis is on the macroscopic level of human brain organization, meso-and microscopic neuroimaging across all species will be considered if informative for understanding the aforementioned relationships.
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