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生命最初 1000 天中的基因-环境相互作用影响儿童神经学诊断。

Gene-Environment Interactions During the First Thousand Days Influence Childhood Neurological Diagnosis.

机构信息

Department of Pediatrics, Division of Pediatric Neurology, Fetal/Neonatal Neurology Program, Rainbow Babies and Children's Hospital/MacDonald Hospital for Women, Case Western Reserve University School of Medicine, University Hospitals Cleveland Medical Center, Cleveland, OH.

出版信息

Semin Pediatr Neurol. 2022 Jul;42:100970. doi: 10.1016/j.spen.2022.100970. Epub 2022 Apr 14.

Abstract

Gene-environment (G x E) interactions significantly influence neurologic outcomes. The maternal-placental-fetal (MPF) triad, neonate, or child less than 2 years may first exhibit significant brain disorders. Neuroplasticity during the first 1000 days will more likely result in life-long effects given critical periods of development. Developmental origins and life-course principles help recognize changing neurologic phenotypes across ages. Dual diagnostic approaches are discussed using representative case scenarios to highlight time-dependent G x E interactions that contribute to neurologic sequelae. Horizontal analyses identify clinically relevant phenotypic form and function at different ages. Vertical analyses integrate the approach using systems-biology from genetic through multi-organ system interactions during each developmental age to understand etiopathogenesis. The process of ontogenetic adaptation results in immediate or delayed positive and negative outcomes specific to the developmental niche, expressed either as a healthy child or one with neurologic sequelae. Maternal immune activation, ischemic placental disease, and fetal inflammatory response represent prenatal disease pathways that contribute to fetal brain injuries. These processes involve G x E interactions within the MPF triad, phenotypically expressed as fetal brain malformations or destructive injuries within the MPF triad. A neonatal minority express encephalopathy, seizures, stroke, and encephalopathy of prematurity as a continuum of trimester-specific G x E interactions. This group may later present with childhood sequelae. A healthy neonatal majority present at older ages with sequelae such as developmental disorders, epilepsy, mental health diseases, tumors, and neurodegenerative disease, often during the first 1000 days. Effective preventive, rescue, and reparative neuroprotective strategies require consideration of G x E interactions interplay over time. Addressing maternal and pediatric health disparities will maximize medical equity with positive global outcomes that reduce the burden of neurologic diseases across the lifespan.

摘要

基因-环境(G x E)相互作用对神经系统的结果有显著影响。母体-胎盘-胎儿(MPF)三联体、新生儿或 2 岁以下的儿童可能首先表现出明显的脑部疾病。在最初的 1000 天内,神经可塑性更有可能导致终生影响,因为这是发育的关键时期。发育起源和生命历程原则有助于识别不同年龄段的不断变化的神经表型。使用代表性病例场景讨论双重诊断方法,以突出导致神经系统后遗症的时间依赖性 G x E 相互作用。横向分析确定了不同年龄的临床相关表型形态和功能。纵向分析通过系统生物学整合方法,从遗传到每个发育年龄的多器官系统相互作用,以了解病因发病机制。个体发生适应的过程导致特定于发育小生境的即时或延迟的阳性和阴性结果,表现为健康儿童或有神经系统后遗症的儿童。母体免疫激活、胎盘缺血性疾病和胎儿炎症反应代表导致胎儿脑损伤的产前疾病途径。这些过程涉及 MPF 三联体中的 G x E 相互作用,表型上表现为胎儿脑畸形或 MPF 三联体中的破坏性损伤。少数新生儿表现为脑病、癫痫、中风和早产儿脑病,作为特定于妊娠阶段的 G x E 相互作用的连续谱。这一组可能会在以后出现儿童后遗症。大多数健康的新生儿在年龄较大时出现后遗症,如发育障碍、癫痫、精神健康疾病、肿瘤和神经退行性疾病,通常在最初的 1000 天内。有效的预防、挽救和修复性神经保护策略需要考虑随着时间的推移 G x E 相互作用的相互作用。解决母婴健康差距将最大限度地提高医疗公平性,从而带来积极的全球成果,减轻整个生命周期中神经系统疾病的负担。

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