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1 ns that can regulate gene expression through histone modification.
2 F1alpha binding to the Il22 promoter through histone modification.
3 nto biochemical compartments that facilitate histone modification.
4 ar link between the depositions of these two histone modifications.
5 ses involved in the hypoxia response and DNA/histone modifications.
6 ions between genes with specific euchromatic histone modifications.
7 active enhancers with higher resolution than histone modifications.
8 enomic annotations including kidney-specific histone modifications.
9 scale for alterations in gene expression and histone modifications.
10 with almost no additional power derived from histone modifications.
11 hanges in nucleosome location and associated histone modifications.
12 heir activating marks and not via repressive histone modifications.
13 gions marked with both active and repressive histone modifications.
14 and putative enhancer regions identified by histone modifications.
15 ne regulation that usually requires specific histone modifications.
16 ich are marked by and enriched with specific histone modifications.
17 epigenetic reprogramming that alter DNA and histone modifications.
18 patterns of their association with specific histone modifications.
19 ene expression, DNA replication, and DNA and histone modifications.
20 at are abrogated with inhibitors of specific histone modifications.
21 iling genome-wide epigenetic changes such as histone modifications.
22 promoter-related marks, and enhancer-related histone modifications.
23 s involved in transcriptional elongation and histone modifications.
24 with previously curated LADs and repressive histone modifications.
25 fter mitosis to generate genome-wide maps of histone modifications.
26 y modified by DNA methylation and repressive histone modifications.
27 h has a regulatory function in SAGA-mediated histone modifications.
28 play between euchromatic and heterochromatic histone modifications.
29 tion embryos, including atypical patterns of histone modifications(2-4) and differences in chromosome
30 in sex-specific chromatin accessibility and histone modifications accompanied these cGH-induced sex-
32 stinct mechanism involving the modulation of histone modifications across domains and that this activ
34 pport the importance of physical coupling of histone modification activities to promote epigenetic sw
35 egulatory regions depleted of H3.3K4A showed histone modification alterations and changes in enhancer
36 Integration of genome-wide DNA methylation, histone modification and chromatin accessibility data en
37 of gene regulation, such as DNA methylation, histone modification and chromatin remodelling, and non-
38 se findings reveal an important mechanism of histone modification and demonstrate that local generati
39 impairs the acquisition of such differential histone modification and expression patterns at MAC-/OC-
40 etermine whether CBD would alter genome-wide histone modification and gene expression in MOG sensitiz
42 tation with sequencing (ChIP-seq) assays for histone modifications and 132 assay for transposase-acce
46 iptional negative feedback loops and require histone modifications and chromatin remodeling to ensure
48 Jurkat cells alters chromatin accessibility, histone modifications and CTCF-mediated TAD leading to i
49 gside commonly accepted mechanisms including histone modifications and disruption of DNA methyltransf
50 hot spots by PRDM9 and is necessary for both histone modifications and DNA accessibility at hot spots
53 damage-induced histone removal, we screened histone modifications and found that histone ADP-ribosyl
58 el reproduces statistical correlations among histone modifications and identifies well-known states.
60 unique and shared epigenetic alterations in histone modifications and potential regulators for BCCs
62 al epigenetic regulators of DNA methylation, histone modifications and RNA methylation in adult F1 ma
64 we will discuss the many different types of histone modifications and the biological processes with
67 unds to study the functional significance of histone modifications and their clinical implications.
68 focus on methods to profile gene-associated histone modifications and their impacts on chromatin str
69 IP)-seq and RNA-seq were performed to assess histone modifications and transcriptional changes follow
71 es a molecular link between DNA methylation, histone modification, and the PIWI pathway in the germli
72 measured the cellular levels of 6 classes of histone modifications, and 1 histone variant in 11 major
73 kit facilitates searches for factor binding, histone modifications, and chromatin accessibility in an
74 otation of the genome by chromatin proteins, histone modifications, and differential compaction is la
76 e found enrichment in targets for miRNAs, in histone modifications, and in parent-of-origin DNA methy
77 modeling, DNA methylation, posttranslational histone modifications, and involvement of small and long
78 genetic machinery involving DNA methylation, histone modifications, and microRNAs mediates hyperglyce
79 cetyllysine residues, alter the landscape of histone modifications, and modulate chromatin structure
80 These genes were enriched for inflammation, histone modifications, and neuronal death functional cla
82 acteristics include coactivator recruitment, histone modifications, and noncoding RNA transcription.
85 hypersensitive sites, coincided with active histone modifications, and specifically marked actively
86 igated the relationship among ERK signaling, histone modifications, and transcription factor activity
87 accompanied by variation in gene expression, histone modifications, and transcription factor binding.
88 ic alterations including DNA methylation and histone modifications are being characterized in ovarian
91 largely on correlative evidence, posits that histone modifications are instructive for transcriptiona
98 features including the presence of specific histone modifications are used to demarcate potentially
99 K4me3 (activating) and H3K27me3 (repressive) histone modifications, are a key property of pluripotent
100 overview specifically of DNA methylation and histone modifications as "clothes of the ovarian cancer
101 ana histone acetyltransferase GCN5 regulates histone modifications as part of the Spt-Ada-Gcn5 Acetyl
102 sine 36 methylation (H3K36me) is a conserved histone modification associated with transcription and D
103 ), which classifies broad regions exhibiting histone modifications associated with gene activation.
105 ngs suggest that exposure to cocaine induces histone modification at the hippocampal FosB gene promot
106 TF based solely on the correlation between a histone modification at the TF's binding site and the ex
107 mice exhibited more transcriptionally active histone modifications at M2 gene promoters than did macr
109 itoring of recruitment of repair proteins or histone modifications at the damage site (e.g. gammaH2AX
113 ion were used to monitor gene expression and histone modifications at the retinoic acid-related orpha
115 region connecting the different TTD and PHD histone modification-binding domains causes distinct H3K
116 g, including its combinatory assemblies, DNA/histone modification-binding modules and post-translatio
118 romatin domains display major differences in histone modifications, biophysical properties, and spati
120 ed at DSB-prone sites upon PRDM9 binding and histone modification, but independent of DSB activity.
121 key mechanism that mediates the function of histone modifications, but how the dysregulation of thes
123 nomic locations of active enhancers based on histone modifications, but the accuracy and resolution o
124 hypermethylation at its promoter as well as histone modification by methylation and acetylation.
125 tro, blocks transcription by abrogating core histone modifications by p300 but not activator and p300
128 machinery to deposit the H3K9me3 repressive histone modification, can activate expression from the n
130 grated DNAs were marked by posttranslational histone modifications characteristic of transcriptionall
131 the relationship between thousands of TF and histone modification ChIP-seq data sets with thousands o
133 se viral genomes, including DNA methylation, histone modification, chromatin remodeling, and noncodin
134 t have examined epigenetic mechanisms (e.g., histone modifications, chromatin remodeler-associated mo
135 were enriched for genes involved in covalent histone modification/chromatin remodeling (34.5%; MEN1,
137 g small noncoding RNAs, DNA methylation, and histone modifications, contribute to the establishment o
138 mere can reveal general principles about how histone modifications control chromatin-bound membranele
139 on of H2B K120 (H2B-Ub) and is an example of histone modification cross-talk that is conserved from y
141 broadly, a meta-analysis of other conserved histone modifications demonstrates that nucleosome turno
142 body specificity and absolute measurement of histone modification density (HMD) at genomic loci on a
143 sine 36 methylation (H3K36me) is a conserved histone modification deposited by the Set2 methyltransfe
144 blishment: removal of transcription-favoring histone modifications deposited by Dot1, Sas2, and Rtt10
145 r mechanisms, including, but not limited to, histone modification, DNA methylation and nucleosome rem
146 by epigenetic mechanisms involving chromatin histone modifications, DNA methylation and non-coding RN
147 dney repair, involving remarkable changes in histone modifications, DNA methylation and the expressio
150 e2s following excision of Cdc73 placing this histone modification downstream of the PAFc and revealin
151 lar mechanisms of epigenetic events, such as histone modification dynamics and epigenetic priming.
152 expression, which in turn regulate rhythmic histone modification dynamics for the clock and its outp
154 (NPC) proteins, transcription factors (TFs), histone modification enzymes, Mediator, and factors invo
156 plethora of chromatin-remodeling complexes, histone-modification enzymes and transcription elongatio
159 t with nucleosome occupancy and placement of histone modifications facilitate the temporal order of A
164 a high-resolution technique for analysis of histone modifications for use with patient-derived fine-
165 or understanding conserved crosstalk between histone modifications found at actively transcribed gene
168 dent dioxygenases that remove the repressive histone modification H3K27me3 and activate differentiati
169 despread enrichment domain of the repressive histone modification H3K27me3 and is further enriched wi
170 level and the localization of the repressive histone modification H3K27me3 and the histone variant H2
171 chromosomes inherited lacking the repressive histone modification H3K27me3 are maintained in that sta
173 was coupled with depletion of the repressive histone modification, H3K27me3, and enrichment of activa
174 s in the PWWP domain abrogate binding to the histone modifications H3K36me2 and H3K36me3, and alter D
177 embryonic ectoderm (ExE) by assaying allelic histone modifications (H3K4me3, H3K36me3, H3K27me3), gen
178 suggesting a novel, noncanonical role of the histone modification H3K9me3 in the HBV life cycle.
179 r and can distinguish between the repressive histone modification H3K9me3, H3K9me2 and H3K27me3.
180 However, it is unclear how the repressive histone modification H4K20me3 or the histone methyltrans
181 ulatory elements of the genome, any specific histone modification has not been assayed in more than a
183 regulatory states, as only a small number of histone modifications have been profiled across many cel
184 the potential impact of that small RNAs and histone modifications have in regulation of NAT expressi
186 for lactate whereby it is utilized in a new histone modification, histone lysine lactylation, to reg
187 t the enzymes related to the methyl cycle or histone modification; however, it remains largely unknow
188 blishing the functional role of ATM-mediated histone modification in plant growth under genotoxic str
190 However, nothing is known about the role of histone modifications in contributing to the neurologica
193 analysis were used to measure the levels of histone modifications in human bronchial epithelial BEAS
195 nitoring the dynamic changes associated with histone modifications in real-time by measuring the bala
196 e no association was found for the other two histone modifications in relation to basal and luminal s
197 the dynamic and global-scale distribution of histone modifications in single cell types in plants.
198 ent works have highlighted the importance of histone modifications in the regulation of transcription
200 We used the protocol to study a number of histone modifications in various types of mouse and huma
201 d the transcription factor binding motifs or histone modifications, indicating the involvement of the
202 tructural mechanics play in the spreading of histone modifications involved in epigenetic regulation.
204 ile the association between RNA splicing and histone modifications is beginning to be recognized, a l
207 etic functions including DNA methylation and histone modification, is induced by Sonic Hedgehog (SHH)
208 ce the identification of DNA methylation and histone modification, it has become evident that genes e
209 tigated phosphorylated H2A.X (gammaH2A.X), a histone modification known to colocalize with DSBs.
212 DNA methylation, chromatin accessibility and histone modification level, that can be partially recapi
213 labeling technique to monitor the changes in histone modification levels during zygotic genome activa
214 a genome-wide assessment of 5mC, 5hmC, four histone modifications linked to promoter/enhancer functi
215 evolution, we integrate DNAme analysis with histone modification mapping and single cell analyses of
216 sine 9 dimethylation (H3K9me2), a repressive histone modification mark that was increased in the hipp
217 ription (H3K9(ac) or H3K27(ac)), but not the histone modifications marking constitutive (H3K9(me3)) o
218 c quantitative trait loci [mQTLs]) and under histone-modification marks in several tissues were disco
219 llowed by eQTLs, young variants, those under histone-modification marks, and selection signatures.
221 ts into the nucleosome-based recognition and histone-modification mechanisms of NSD2 and NSD3, which
222 ots are decorated by a unique combination of histone modifications not found at other regulatory elem
223 le levels including through DNA methylation, histone modification, nucleosome remodelling and modulat
224 or (TF) binding motifs, patterns of covalent histone modifications, nucleosome occupancy, GC content,
227 Rorgammat and T(H)17 differentiation through histone modifications of Rorgammat; Foxp3 expression and
230 nce of germline-inherited post-translational histone modifications on priming early mammalian develop
231 ted the repressed hTERT promoter and altered histone modifications only in telomerase-negative cells.
232 a set of genome-wide measurements such as of histone modification or DNA accessibility and output an
233 st algorithm was accurate and relied only on histone modifications or DNA methylation patterns within
234 ovel interactions between co-transcriptional histone modification pathways, which link regulation of
238 f gene repression is sustained by cis-acting histone modifications, PRC2-mediated H3K27me3 and cPRC1-
239 ion, nucleosomes were found carrying various histone modifications primarily in the regulatory region
240 n of DNA methylation triggers changes in the histone modification profile and chromatin-remodeling ev
243 of inhibiting KDM enzymes, globally changing histone modification profiles, and with specific anti-tu
244 gains in 5mC and 5hmC, and markedly altered histone modification profiles, particularly remodeling o
245 ns (TADs) demonstrate similar expression and histone-modification profiles, and boundaries separating
246 n proposed for use in disease diagnosis, and histone modification profiling for disease stratificatio
248 uggest sequential ubiquitin-histone and SUMO-histone modifications recruit Ulp2, which removes polySU
249 observed JAK2-mediated epigenetic changes in histone modifications, reflected in a reduction of histo
250 Recently, several non-classical functions of histone modification regulators (HMRs), independent of t
251 o cancer development, with posttranslational histone modifications representing attractive targets fo
252 te of several target promoters, indicated by histone modifications resulting in transcriptional repre
253 of the 5hmC profiles with transcriptomes and histone modifications revealed that 5hmC is preferential
254 onstrate the utility of CUT&Tag by profiling histone modifications, RNA Polymerase II and transcripti
257 t activating H3K4me3 and repressive H3K27me3 histone modifications, silencing basal MHC-I expression
258 prehensive atlas of m(6)A methylation sites, histone modification sites, and chromatin accessibility
260 ated with the reduction of cccDNA-associated histone modifications specifying active transcription (H
262 nment through MSCs and consequent changes to histone modification state and chromatin-based nuclear r
263 itive ion channels and consequent changes to histone modification state and chromatin-based nuclear r
265 protein that integrates readout of different histone modification states and DNA methylation with enz
266 result, the effects of genetic variation on histone modification states in the liver are poorly unde
267 ies an SE-specific requirement for balancing histone modification states to maintain SE architecture
269 egulators (HMRs), independent of their known histone modification substrates and products, have been
271 n the human lung, including genes related to histone modifications, such as HAT1, HDAC2, and KDM5B.
272 me of these motifs were also associated with histone modifications, suggesting a possible interplay b
273 mutually exclusive activating and repressing histone modifications, suggestive of intra-tumoral epige
274 r transcription factor (TF) binding sites or histone modifications surrounding DNAm differences were
276 istone 2A K119 monoubiquitination (H2Aub), a histone modification that correlates with gene repressio
277 ne 9 trimethylation (H3K9me3) is a conserved histone modification that is best known for its role in
278 y between a key nucleosome binding hub and a histone modification that underlies the disease-specific
279 he placing (writing) or removal (erasing) of histone modifications that allow heterochromatin to tran
280 otein called ZCWPW1 is able to recognize the histone modifications that initiate the recombination of
282 level as well as prominent associations with histone modifications that typify active genes and enhan
286 erference (RNAi) pathways work together with histone modifications to regulate gene expression and en
287 tion of ZIC2 shifted the balance of bivalent histone modifications toward more active forms and induc
288 ly used to generate epigenetic data, such as histone modification, transcription factor binding sites
289 ing measurements of chromatin accessibility, histone modification, transcription, and protein binding
290 ar processes, including splicing regulation, histone modification, transcriptional pause release, hyp
291 e regulatory processes including genome-wide histone modification, transcriptional regulation, and RN
292 by sequencing (MOWChIP-seq) for profiling of histone modifications using as few as 100 cells per assa
294 Using genome-wide profiling of the H3K27ac histone modification, we identify neuron-subtype-specifi
295 s, typical enhancer-associated proteins, and histone modifications, we determine that both enhancer c
296 s in vivo By analyzing active and repressive histone modifications, we show that stem cell identity g
297 interaction enrichment, enhancer-associated histone modifications were evident, and known functional
299 solic ribosomal proteins, underwent distinct histone modifications, yet retained RNAPII engagement an
300 tion are associated with profound changes to histone modifications, yet their in vivo function remain