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1 es to BB vary, which may be partially due to genetic variation.
2 erstand the geographic distribution of human genetic variation.
3 ation for understanding the human genome and genetic variation.
4 inically and biologically important class of genetic variation.
5 n been difficult to resolve due to a lack of genetic variation.
6 us with larger than expected intra-accession genetic variation.
7 how habitat loss and fragmentation influence genetic variation.
8 he role of gene flow in resupplying adaptive genetic variation.
9 t in diversity outbred mice that model human genetic variation.
10 tions to fully discover and understand human genetic variation.
11 ce of collecting and preserving more natural genetic variation.
12 of gene regulatory mechanisms and functional genetic variation.
13 substantial variety of its physiological and genetic variation.
14 edicted to be soft sweeps acting on standing genetic variation.
15 ed for disease-relevant genes and associated genetic variation.
16 nalysed these for relationships to inherited genetic variation.
17 otype analyses assessed B1 polymorphisms and genetic variation.
18 us on how networks influence the exchange of genetic variation.
19 do not scale well to large-scale datasets of genetic variation.
20 from popular statistical models of additive genetic variation.
21 omplete picture of genomes and their complex genetic variations.
22 The human genome harbors a variety of genetic variations.
23 on barley pan-genome makes previously hidden genetic variation accessible to genetic studies and bree
24 omputational study that exploits the natural genetic variation across five closely related species to
25 In recent species radiations the sharing of genetic variation across porous species boundaries can f
26 rse saprotrophic lineages and the impacts of genetic variation across species, and especially within
27 ) for TWASs, leveraging the co-regulation of genetic variations across different tissues explicitly v
29 HD, and they clearly indicate that multiple genetic variations act by different means through FAN1 t
30 OCA2) is a gene of great interest because of genetic variation affecting normal pigmentation variatio
38 riation may contribute to the maintenance of genetic variation and adaptive trajectories of rhizobia
40 ns of genomes are capable of expressing more genetic variation and can therefore better represent a p
41 ntal gradients potentially due to geographic genetic variation and climate interactions with other as
45 metabolic parameter that is shaped by human genetic variation and contributes causally to key metabo
49 omedicine, relating phenotypic outcomes with genetic variation and environmental factors remains a ch
50 e that facilitates the spread of nonselected genetic variation and expands the adaptive potential of
53 els, facilitate quantification of microbiome genetic variation and inferences about how this diversit
54 nd cultural factors which shaped patterns of genetic variation and influenced the genetic architectur
57 n contributes to inter- and intra-individual genetic variation and occasionally can lead to human gen
58 ch represents the most proximal link between genetic variation and organismal phenotype, and quantifi
60 seful computational tool for elucidating the genetic variation and phenotypic association of alternat
62 otyping by sequencing (GBS) to determine the genetic variation and population structure in red clover
66 es highlight the combined effects of Atg16L1 genetic variation and stimulatory context on immune func
67 te analyses found strong correlation between genetic variation and surface chlorophyll-a and salinity
69 tation rate estimation based on the observed genetic variation and the expected site frequency spectr
70 pergenes, the role of development in shaping genetic variation and the origins of adaptive variation,
74 eomics is a powerful tool for characterizing genetic variations and post-translational modifications
75 tudy hepatocyte biology, disease mechanisms, genetic variation, and drug metabolism in a more physiol
76 es, covering a spectrum of heterotic groups, genetic variation, and levels of heterosis for various t
77 e a more complete enumeration of etiological genetic variation apart from the exome and regions of hi
78 Based on our findings, landscape effects on genetic variation appears to differ based on spatial sca
79 d present evidence that some patterns in its genetic variation are incompatible with strict clonality
80 However, the phenotypic implications of this genetic variation are not well understood, with effects
82 itative trait loci) and show that underlying genetic variations are important drivers of methylation
84 toms in HD are influenced by the same common genetic variation as in the general population by 1) con
85 e genome and aligned reads covering sites of genetic variation as numeric tensors allows us to levera
86 c markers of regulatory DNA(1-5) and contain genetic variations associated with diseases and phenotyp
87 t abundance, including 10 QTL hotspots where genetic variation at a single locus coordinates the regu
89 des a comprehensive strategy to characterize genetic variation at important disease-associated loci,
90 study is needed on the relationships of the genetic variation at OCA2 to variation in pigmentation i
93 These findings highlight the central role genetic variation at the FADS locus plays in regulating
94 nd demonstrate how dispersal affects spatial genetic variation at the local, regional, and range-wide
96 isingly heterogenous tissue with substantial genetic variation based on anatomical location and speci
99 as resulted in extensive catalogues of human genetic variation, but the interpretation of rare geneti
100 ed a robustness to the disruptive effects of genetic variation by expanding their regulatory domains.
103 or blood cell traits, illuminating how human genetic variation can impact on key mechanisms in hemato
105 een COMT genotype with scarring, with rs4680 genetic variation constituting an independent risk facto
107 ome-wide association studies have identified genetic variation contributing to complex disease risk.
110 h DKD phenotypes, the key role of underlying genetic variations driving methylation variations, and p
111 impact of spatial and migratory structure on genetic variation during processes as varied as range ex
114 ional components to define the links between genetic variation, epigenetic gene regulation, and atria
117 es, which is consistent with the presence of genetic variation for physiological traits relevant for
118 s of selection on hosts is reflected in this genetic variation for resistance in lines derived from w
120 he potential to unveil heritable and somatic genetic variations for guiding precision immunotherapy t
122 omplex, and provide evidence supporting that genetic variations found in individuals with intellectua
123 he genome-wide variation in population-level genetic variation from 41K unrelated TOPMed samples.
124 major consequences that the transmission of genetic variation from parents to offspring has on the a
127 The lack of mechanistic understanding of genetic variation has become the major bottleneck in the
129 Genome-wide analyses of common and rare genetic variations have documented the heritability of m
130 y between this locus and naturally occurring genetic variations highly significant for sterol/steroid
131 A new study by Fasolino et al. defines how genetic variation in a mouse model of type 1 diabetes me
134 at alternative editing can work to introduce genetic variation in a system that selects against nucle
139 e unknown, we asked whether there is natural genetic variation in amylose synthesis within a wild, un
143 after intense activity, and that the role of genetic variation in both genes in intellectual disabili
146 on of Arabidopsis and is associated with the genetic variation in CLSY1, a key component of the RNA-d
148 While speciation should initially reduce genetic variation in daughter versus parental species, a
149 rmore, our results indicate that segregating genetic variation in epistatically interacting loci may
150 t strategies to investigate the role of host genetic variation in established and emerging infections
152 de polymorphisms to characterize patterns of genetic variation in French, Spanish, and Mexican teosin
155 ary SNP analyses further confirmed extensive genetic variation in human RvE1/EPA-metabolizing genes.
158 number of recent papers report that standing genetic variation in natural populations includes ubiqui
159 gauging the evolutionary processes governing genetic variation in natural populations, and provides a
161 tween frustration and pain, and suggest that genetic variation in opioid tone may contribute to indiv
162 ps are needed to understand the structure of genetic variation in our species and the history of, and
163 nce for the evolution of trait plasticity as genetic variation in plasticity was maintained in the fa
164 and highlight the importance of quantifying genetic variation in plasticity when evaluating the driv
167 e expansions lead to distinctive patterns of genetic variation in populations, even in the absence of
168 c pleiotropy, the importance of pre-existing genetic variation in populations, the danger that adapta
170 s new insights regarding the role of natural genetic variation in regulating gene expression and gene
176 These studies underscore the importance of genetic variation in susceptibility to both viruses and
182 virus-induced inflammation, suggesting that genetic variation in the IRF5 gene may influence host su
183 overlap, and in this study we tested whether genetic variation in the major histocompatibility comple
184 Center's BioVU biobanks to study the role of genetic variation in the occurrence of self-reported pen
185 their predictive power is not simply due to genetic variation in the transcribed genomic regions.
187 s represents the first published instance of genetic variation in these key gas-exchange traits being
188 3 function by leveraging naturally occurring genetic variation in wild-derived inbred mice, which ena
193 , testing their ability to preserve specific genetic variations, including aneuploidy levels and SNPs
194 tions between phenetic variation and neutral genetic variation indicate that EDJ morphology has evolv
197 ng how habitat loss and fragmentation impact genetic variation is a major goal in landscape genetics,
201 g the molecular mechanisms that give rise to genetic variation is essential for the understanding of
202 and normal cell elongation, and its natural genetic variation is involved in determining root growth
205 population-based approaches considering FADS genetic variation may be necessary to optimize the desig
206 f the current pandemic.IMPORTANCE Individual genetic variation may help to explain different immune r
209 nd drive kidney disease, including how human genetic variation might affect disease predisposition an
215 he concern that DRAs present in the standing genetic variation of mosquito populations will be detrim
219 s gap, we used 3' Seq to study the impact of genetic variation on alternative polyadenylation (APA) i
221 understand the effects of disease-associated genetic variation on functional readouts of chromatin in
222 vided insights into the regulatory impact of genetic variation on gene expression across human tissue
223 tigate the confounding effects of background genetic variation on neuronal function, the regulatory e
224 proaches for characterizing the influence of genetic variation on signaling networks and phenotypic d
225 e used metabolomics to unravel the effect of genetic variation on the strain-specific metabolic adapt
226 int to study the impact of SNVs derived from genetic variation or disease association on TF binding t
227 r results indicate conclusive differences in genetic variation, phenotype, and plasticity in this spe
229 arriage etiopathogenesis is partly driven by genetic variation potentially related to placental biolo
231 clear how these mechanisms are modulated by genetic variation present throughout the population.
232 an excess of previously undocumented common genetic variation private to southern Africa, central Af
233 Thus, the biological mechanisms by which genetic variation promotes AF has thus far remained larg
235 red sex-biased gene regulation from standing genetic variation, rather than new mutations, is the dri
236 amatic changes in our understanding of human genetic variation, reappraisal of reported genetic cause
239 mics by revealing the full spectrum of human genetic variation, resolving some of the missing heritab
240 me editing technologies are needed to create genetic variation resources for functional genomics.
243 study - sufficiently large levels of initial genetic variation, size- and habitat-specific mating, su
244 that HGT alters the evolutionary dynamics of genetic variation, so that deleterious genetic variants,
246 ample, along with the intermediate levels of genetic variation suggest a small pool of related isolat
247 The fraction of disease risk attributable to genetic variation, termed heritability, is high, with es
249 dern humans and African genomes contain more genetic variation than those from any other continent, y
250 , and there are differences in the levels of genetic variation that are explained by differences in t
251 may be groups within the species' range with genetic variation that could be essential for adapting t
252 ecies and is recognized as a major source of genetic variation that directly contributes to phenotypi
253 selection on key traits and maintaining the genetic variation that enables rapid adaptation in novel
254 ing the functional characterization of human genetic variation that impacts gene expression in cell-t
255 t change is therefore causing a reduction in genetic variation that may hinder future adaptation for
256 e introduce an alternative representation of genetic variation that reveals the relative abundance of
257 is is central in guiding the behavior of the genetic variation that shapes quantitative trait variati
258 uencing has revealed an increasing number of genetic variations that are associated with neuropsychia
259 e association studies have identified common genetic variations that may contribute to the risk of am
260 ccessful way of creating progeny with subtle genetic variations that the vast majority of eukaryotic
261 resence, frequency, and phenotypic impact of genetic variation, the evolutionary histories of most va
263 wo events also differed substantially in the genetic variation they generated, suggesting varying tra
264 etermine the contribution of rare and common genetic variation to AF risk in the general population.
265 Novel resilience traits exhibited sufficient genetic variation to be amenable to genetic improvement
266 ce-for-time substitutions linking changes in genetic variation to functions or traits relevant to the
270 tive trait loci revealed the contribution of genetic variation to transcription and DNA methylation.
271 Thus, our work demonstrates that APA links genetic variation to variation in gene expression, prote
281 have been complemented with population-based genetic variation, which is particularly important for N
282 tural variation alone but also may extend to genetic variations, which may modulate gene expression.
283 in their parents, are an important source of genetic variation whose impact is relevant to studies of
284 Here, we integrate estimates of genome-wide genetic variation with demographic and niche modeling to
285 ndelian diseases with co-occurrent EoE, rare genetic variation with large effect sizes could mediate
286 e advances create opportunities to integrate genetic variation with other biological layers to identi
288 an genome reference, we identify genome-wide genetic variation within a cohort of 110 Egyptian indivi
289 has focused on exploiting the intraspecific genetic variation within a crop [Hajjar et al., Agric.
293 but connection between neurodegeneration and genetic variation within glycosyltransferases is not new
294 quencing has uncovered unanticipated extreme genetic variation within mitochondrial DNA (mtDNA).
295 cently linked with the maintenance of a high genetic variation within natural populations, the factor
296 Breeding climate-resilient crops depends on genetic variation within naturally varying populations.
299 pectedly, we find increased density of human genetic variation within transcription factor footprints