精神分裂症多基因风险的表型效应:到目前为止我们学到了什么?

U. Heilbronner
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引用次数: 0

摘要

精神分裂症(SZ)的大型全基因组关联研究的结果可用于计算个体患SZ的多基因风险(例如,[1])。这种多基因风险评分(PRS)是SZ风险等位基因的加权和,因此有希望在将来的临床护理中使用,例如在精神障碍的预防、诊断和治疗中(例如[2])。它可以用来揭示受SZ-PRS影响的其他表型,如行为特征或疾病,本期《精神病学与脑科学杂志》旨在总结在这方面出现的一些知识。这期虚拟特刊包含三篇评论和两篇原创研究文章。Schaupp, Schulze和Budde等人对SZ-PRS与认知之间的关系进行了很好的总结。他们在患者和一般人群中发现了不一致的结果,尽管这是一个发展中的领域的特征,但这表明在研究认知遗传学时需要更大的样本量,并突出了进一步的方法问题。Adorjan和Papiol bbb回顾了大麻消费、SZ和SZ- prs之间的关系,并讨论了越来越多的证据表明SZ的高多基因风险可能使个体倾向于大麻滥用。因此,大麻消费不仅可以理解为SZ的环境风险因素,而且可以理解为一种基因-环境相关/相互作用。Bengesser和Reininghaus的最后一篇综述文章强调了一个有趣的发现,即SZ-PRS可用于描述对锂有反应的双相情感障碍患者和不对锂有反应的患者,并且可以理解为强调了基于生物学的精神障碍诊断的必要性。Yasmeen, Papiol, Falkai, Schulze, & Bickeböller[7]的原创研究文章使用PsyCourse研究[8]的计算机和实证数据研究了SZ-PRS对相关目标表型的影响。实证分析结果表明,将SZ-PRS添加到解释社会心理功能的统计模型(功能整体评估评分)中可以提高模型的拟合度,当额外考虑当前症状状态时,模型的拟合度进一步提高。最后,Eberle等人的神经影像学研究表明,SZ的多基因评分可用于更基本地了解基因与环境的相互作用。在这项研究中,作者研究了伏隔核的连通性,伏隔核是大脑奖励回路的主要组成部分。在健康个体中,SZ的多基因风险与向SZ样开放获取的转变有关
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Phenotypic Effects of Polygenic Risk for Schizophrenia: What Have We Learned So Far?
The results of large genome-wide association studies of schizophrenia (SZ) can be used to calculate an individual’s polygenic risk for SZ (e.g., [1]). This polygenic risk score (PRS) is a weighted sum of SZ risk alleles, and thus holds promise to be used in clinical care someday, e.g., in prevention, diagnosis and treatment of mental disorders (e.g., [2]). It can be used to uncover other phenotypes, such as behavioral traits or disorders, that are influenced by SZ-PRS, and this issue of the Journal of Psychiatry and Brain Science aims to summarize some of the knowledge that has emerged to this regard. Three reviews and two original research articles are contained in this Virtual Special Issue. Schaupp, Schulze and Budde [3] provide an excellent summary of studies researching the associations of SZ-PRS and cognition. Their finding of inconsistent results, both in patients and the general population, albeit characteristic for a developing field, points to a need for larger sample sizes when studying the genetics of cognition, and highlights further methodological problems. Adorjan and Papiol [4] review the relationship of cannabis consumption, SZ, and the SZ-PRS, and discuss accumulating evidence that a high polygenic risk for SZ may be predisposing individuals to cannabis abuse. Thus, consumption of cannabis may not only be understood as an environmental risk factor for SZ, but also as a type of gene-environment correlation/interaction. The last review article of Bengesser and Reininghaus [5] highlights the interesting finding that the SZ-PRS may be used to delineate bipolar disorder patients that respond to lithium from those who do not [6], and can be understood to emphasize the need for biologically-based diagnosis of mental disorders. The original research article of Yasmeen, Papiol, Falkai, Schulze, & Bickeböller [7] researches effects of SZ-PRS in correlated target phenotypes, using both in-silico and empirical data of the PsyCourse study [8]. Results of empirical analyses show that the addition of SZ-PRS to statistical models explaining psychosocial functioning (the Global Assessment of Functioning score) improves model fit, which is further increased when current symptom status is additionally taken into account. Finally, the neuroimaging study of Eberle et al. [9] demonstrates that polygenic scores for SZ can be used to gain a more fundamental understanding of gene-environment interactions. In this study, the authors researched connectivity of the nucleus accumbens, a major component of the brain’s reward circuitry. In healthy individuals, polygenic risk for SZ was associated with a shift towards SZ-like Open Access
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