Extensive Variation in Chromatin States Across Humans

Maya Kasowski(Yale University), Sofia Kyriazopoulou-Panagiotopoulou(Stanford University), Fabian Grubert(Stanford University), Judith B. Zaugg(Stanford University), Anshul Kundaje(Broad Institute), Yuling Liu(Stanford University), Alan P. Boyle(Stanford University), Qiangfeng Cliff Zhang(Stanford University), Fouad Zakharia(Stanford University), Damek V. Spacek(Stanford University), Jingjing Li(Stanford University), Dan Xie(Stanford University), Anthony O. Olarerin-George(University of Pennsylvania), Lars M. Steinmetz(European Molecular Biology Laboratory), John B. Hogenesch(University of Pennsylvania), Manolis Kellis(Broad Institute), Serafim Batzoglou(Stanford University), M Snyder(Stanford University)
Science
October 18, 2013
Cited by 378Open Access
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Abstract

DNA Differences The extent to which genetic variation affects an individual's phenotype has been difficult to predict because the majority of variation lies outside the coding regions of genes. Now, three studies examine the extent to which genetic variation affects the chromatin of individuals with diverse ancestry and genetic variation (see the Perspective by Furey and Sethupathy ). Kasowski et al. (p. 750 , published online 17 October) examined how genetic variation affects differences in chromatin states and their correlation to histone modifications, as well as more general DNA binding factors. Kilpinen et al. (p. 744 , published online 17 October) document how genetic variation is linked to allelic specificity in transcription factor binding, histone modifications, and transcription. McVicker et al. (p. 747 , published online 17 October) identified how quantitative trait loci affect histone modifications in Yoruban individuals and established which specific transcription factors affect such modifications.


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