Genetic analysis of Down syndrome facilitated by mouse chromosome engineering.

Li Zhang, Dawei Fu, Pavel V Belichenko, Chunhong Liu, Alexander M Kleschevnikov, Annie Pao, Ping Liang, Steven J Clapcote, William C Mobley, Y Eugene Yu
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引用次数: 11

Abstract

Human trisomy 21 is the most frequent live-born human aneuploidy and causes a constellation of disease phenotypes classified as Down syndrome, which include heart defects, myeloproliferative disorder, cognitive disabilities and Alzheimer-type neurodegeneration. Because these phenotypes are associated with an extra copy of a human chromosome, the genetic analysis of Down syndrome has been a major challenge. To complement human genetic approaches, mouse models have been generated and analyzed based on evolutionary conservation between the human and mouse genomes. These efforts have been greatly facilitated by Cre/loxP-mediated mouse chromosome engineering, which may result in the establishment of minimal critical genomic regions and eventually new dosage-sensitive genes associated with Down syndrome phenotypes. The success in genetic analysis of Down syndrome will further enhance our understanding of this disorder and lead to better strategies in developing effective therapeutic interventions.

Abstract Image

Abstract Image

小鼠染色体工程对唐氏综合征的遗传分析。
人类21三体是最常见的人类非整倍体,并导致一系列被归类为唐氏综合征的疾病表型,包括心脏缺陷、骨髓增生性疾病、认知障碍和阿尔茨海默型神经变性。由于这些表型与人类染色体的额外拷贝有关,因此唐氏综合症的遗传分析一直是一项重大挑战。为了补充人类遗传方法,基于人类和小鼠基因组之间的进化守恒,已经生成并分析了小鼠模型。Cre/ loxp介导的小鼠染色体工程极大地促进了这些努力,这可能导致建立最小的关键基因组区域,并最终建立与唐氏综合征表型相关的新的剂量敏感基因。唐氏综合症基因分析的成功将进一步增强我们对这种疾病的理解,并为开发有效的治疗干预措施提供更好的策略。
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