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Integration of genomic and epigenomic DNA methylation data in common complex diseases by haplotype-specific methylation analysis

机译:通过单倍型特异性甲基化分析整合常见复杂疾病中的基因组和表观基因组DNA甲基化数据

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摘要

The analysis of complex diseases was revolutionized by the ability to genotype at a genome-wide level tagging common SNPs in sufficiently large, and therefore adequately powered, population sample sets. This technological breakthrough has led to thousands of genetic variants being robustly associated with a multitude of phenotypic traits. These findings have illuminated novel genes and previously unknown pathways in the pathogenesis of disease, although in the majority of loci the functional mechanism remains unknown. The integration of this genomic information with epigenomic and transcriptomic data from these regions is one of the next steps in unraveling their biological significance. Allele-specif ic methylation influences allele-specif ic expression; therefore, the methylation state of the haplotypes within genetically associated regions can determine epigenetic differences with potential functional effects. DNA methylation data and association-determined risk and nonrisk haplotypes can be compared by a haplotype-specific methylation analysis. These are the first forays into what will become an increasingly routine multidimensional analysis as whole-genome, epigenome and transcriptome sequencing data become easily obtainable, with existing second- and soon to be available third-generation sequencing analyzers. Concise understanding of the functional implications of these genome-wide association-derived risk factors, plus rare variants discovered from deep sequencing experiments currently underway, will enable personalized risk and orevention orofilina. as well as treatment to come to fruition.
机译:通过在全基因组水平上对足够大且因此具有足够能力的种群样本集中的普通SNP进行标记的基因型能力,对复杂疾病的分析进行了革新。这一技术突破导致成千上万的遗传变异与众多的表型性状紧密相关。这些发现阐明了疾病发病机理中的新基因和以前未知的途径,尽管在大多数基因座中其功能机制仍然未知。将这些基因组信息与来自这些区域的表观基因组和转录组数据进行整合是揭示其生物学意义的下一步。等位基因特异性甲基化影响等位基因特异性表达;因此,遗传相关区域内单倍型的甲基化状态可以确定具有潜在功能作用的表观遗传差异。可以通过单倍型特异性甲基化分析比较DNA甲基化数据以及关联确定的风险和非风险单倍型。这是对全基因组,表观基因组和转录组测序数据的轻松获取,这将成为越来越常规的多维分析的首次尝试,而现有的第二代测序分析仪将很快上市。对这些全基因组关联的危险因素的功能含义的深入了解,加上目前正在进行的深度测序实验中发现的稀有变体,将使个性化的风险和事件发生成为可能。以及获得成功的治疗方法。

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