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1 protein kinase) and MED19 (a subunit of the Mediator complex).
2 ts, suggesting that MED23 links CR3 with the mediator complex.
3 components of TFIID and 4 components of the Mediator complex.
4 hat the minimal TAD interacts with the human Mediator complex.
5 a thyroid receptor-associated protein in the Mediator complex.
6 ntified as MED28, a subunit of the mammalian Mediator complex.
7 1 and transcriptional regulation through the Mediator complex.
8 he enhancement of CTD kinase activity by the Mediator complex.
9 omplex, consistent with the size of the core Mediator complex.
10 dule components Sin4, Pgd1, and Gal11 to the mediator complex.
11 ol, is in fact the most abundant form of the Mediator complex.
12 entified and they all encode subunits of the mediator complex.
13 of the subunit composition of the mammalian Mediator complex.
14 CREB binding protein (CBP) and the mammalian mediator complex.
15 mplex, and the other bore a component of the Mediator complex.
16 sh4 recombination proteins and the Zip2-Zip4 mediator complex.
17 pressed by the Srb10 kinase, a member of the mediator complex.
18 ing frame, as a new subunit of the mammalian Mediator complex.
19 w light on the architecture of the mammalian Mediator complex.
20 w light on the architecture of the mammalian Mediator complex.
21 -anchored cofactor complex with PBP-anchored mediator complex.
22 d25, is a bona fide subunit of the mammalian Mediator complex.
23 the underlying architecture of the mammalian Mediator complex.
24 of SRC family members, p300, SWI/SNF and the Mediator complex.
25 est indirect association with a multisubunit Mediator complex.
26 an TRAP230, a component of a transcriptional mediator complex.
27 ion, followed by the recruitment of the TRAP/Mediator complex.
28 he multisubunit TR-associated protein (TRAP)/Mediator complex.
29 specific manner, similar to functions of the mediator complex.
30 fic interaction with the Gal11 module of the Mediator complex.
31 coactivation complex homologous to the yeast Mediator complex.
32 tivation depends on the integrity of the Srb/mediator complex.
33 nts decommissioning partly by inhibiting the mediator complex.
34 ation of phenylpropanoid biosynthesis by the Mediator complex.
35 customized, tissue-specific functions of the Mediator complex.
36 cription in vivo at a step downstream of the Mediator complex.
37 rs such as the RNA polymerase II-interacting Mediator complex.
38 l mechanisms for PRDM16 function through the Mediator complex.
39 roach to determine a 3-D model of the entire Mediator complex.
40 ation of diverse pathways is mediated by the mediator complex.
41 ith the MED25 subunit of the transcriptional Mediator complex.
42 uced genes, Hic-5 facilitated recruitment of Mediator complex.
43 n part by Med12-dependent recruitment of the Mediator complex.
44 including histone acetyltransferases and the Mediator complex.
45 tween cytoplasmic signaling proteins and the Mediator complex.
46 nase 8 (CDK8) module of the enigmatic "large Mediator" complex.
47 iprotein histone acetyltransferase (HAT) and Mediator complexes.
48 etween Saccharomyces cerevisiae and metazoan Mediator complexes.
49 ogeneity, and functional specificity of TRAP/Mediator complexes.
50 cluding histone acetyl-transferases and TRAP/mediator complexes.
51 ude the TRAP/SMCC, NAT, DRIP, ARC, and human Mediator complexes.
52 ctivator protein, and the SAGA, SWI/SNF, and Mediator complexes.
53 The gene encodes Med15, a subunit of the Mediator Complex, a conserved protein complex in eukaryo
54 ors, the screen identified components of the Mediator complex, a large multiprotein coactivator requi
56 promoter, and enables P-TEFb to contact the Mediator complex, a potential target for the Brd4-mediat
59 rted previously that MED13, a subunit of the Mediator complex, acts in the heart to control obesity i
62 Here, we show that TREX-2 interacts with the Mediator complex, an essential regulator of RNA Polymera
63 mammalian MED8 is a subunit of the mammalian Mediator complex and (ii) that MED8 can assemble with El
64 lts establish a mechanistic link between the Mediator complex and a critical chromatin modification i
65 thus consistent with a dynamic nature of the Mediator complex and further extend the functional simil
66 ex of four proteins associated with the core Mediator complex and has been found to function both in
67 ited by liganded estrogen receptor, the DRIP/Mediator complex and p160 proteins, although the relativ
68 study, we show that GR binds directly to the Mediator complex and that both LXXLL motifs of MED1/TRAP
69 CycC interactions are stabilized within the Mediator complex and the activity of Cdk8-CycC is regula
71 tone acetylation readers including BRDs, the Mediator complex and the positive transcription elongati
72 rms distinct puncta that colocalize with the Mediator complex and with mRNAs of target lysosomal gene
73 ficient for stable association with the TRAP/Mediator complex and, further, that TRAP220-dependent TR
74 cyclin-dependent kinase associated with the Mediator complex) and Hda1 (a class I histone deacetylas
75 CRSP130/Sur-2 (a Ras-linked subunit of human mediator complexes) and ESX (an epithelial-restricted tr
76 encodes a component of the RNA polymerase II mediator complex, and CG7998, which encodes a putative m
77 or a functional role of REF4 and RFR1 in the Mediator complex, and for Mediator in the maintenance of
78 h encodes a component of the transcriptional Mediator complex, and mutations in the two genes are syn
79 erase II (Pol II) in eukaryotes requires the Mediator complex, and often involves chromatin remodelin
80 physically binds to MED1, a component of the Mediator complex, and recruits it to superenhancers at b
81 und in only a fraction of the total cellular Mediator complexes, and the mechanisms regulating its bi
86 of evidence have converged on a multiprotein Mediator complex as a conserved interface between gene-s
90 ation of MDT-15, a subunit of the C. elegans Mediator complex, as an NHR-49-interacting protein and t
91 e partner of cyclin C and a component of the mediator complex, associated with the Pol II holoenzyme.
96 roximately 1 to 10% of large E1A is bound to Mediator complex at 18 h postinfection and in transforme
99 stitutively active promoters, depends on the Mediator complex but is independent of Mediator at the i
101 participate in all of the activities of the mediator complex, but form a submodule that is required
103 at the recruitment of CBP, SWI/SNF, and TRAP/Mediator complexes by RTA is the principal mechanism to
104 portantly, we show that both the SWI/SNF and Mediator complexes can be targeted to chromatin by p300,
105 decommissioned by the ecdysone receptor and mediator complex, causing them to shrink during metamorp
106 th transcriptional regulation as part of the mediator complex, cell cycle regulation, and other funct
107 lations had mutations in the transcriptional mediator complex, cohesin-related genes, and cell cycle
111 o and cellular approaches, we show here that Mediator complexes containing the CDK8 module are specif
112 uction, and plant infection, as a subunit of mediator complex contributing to transcriptional regulat
114 g domains to Gal11, a component of the yeast mediator complex, creates a powerful activator of genes
115 ssays show that TRAP220/MED1-containing TRAP/Mediator complexes directly bind to the Aurora-A promote
116 on origins, whereas the MED30 subunit of the Mediator complex directs Nipped-B and Vtd in Drosophila
119 e for MED25 as an integrative hub within the Mediator complex during the regulation of JA-associated
120 AF9-GCN5-acetylase) and a "core" form of the Mediator complex during transcription activation by the
121 1 (beta-catenin) and Crebbp; subunits of the Mediator complex; E3 ubiquitin ligase Nedd4; nuclear tra
122 e Med12 and Med13 subunits of the Drosophila mediator complex, encoded by kohtalo and skuld, are esse
123 we have found that in the fasted state, the Mediator complex exists primarily as an approximately 1.
124 ionally, G9a is important in stabilizing the Mediator complex for gene activation, whereas its repres
125 further by the isolation of an ERalpha-TRAP/Mediator complex from cultured cells expressing an epito
129 latform we purify the human Cohesin, CCC and Mediator complexes from as little as 4 micrograms of inp
132 his phenotype results from a mutation in the Mediator complex gene Med31, which causes degradation of
133 lel to ERK and function redundantly with the Mediator complex gene sur-2 and the functionally related
136 s of embryos defective in a component of the Mediator complex have revealed new insights into discret
137 th the intact and Head-Tail Deltamed19(rox3) Mediator complexes have defects in enhanced basal transc
138 ral transcription factors, in particular the mediator complex, have also been implicated as Gal4 targ
139 were used to investigate whether the RNAPII.Mediator complex (holo-RNAPII) can be disrupted by CTD p
140 how that Med1 and Med12, two subunits of the mediator complex implicated in transcription initiation
142 onal synergism between TAF(II)s and the TRAP/Mediator complex in activated transcription, manifested
143 results support a physiological role of the Mediator complex in conveying regulatory signals to the
145 in a two-component homologous recombination mediator complex in genome maintenance and tumor suppres
146 lecules, histone acetyltransferase SRC1, and mediator complex in leptin-mediated regulation of CYCLIN
147 . (2016) describe a role for a member of the Mediator complex in maintaining HSC-specific enhancers a
148 gests that SOP-3 may act at the level of the Mediator complex in regulating transcription initiation.
150 ATOR8 (MED8) and MED25 subunits of the plant Mediator complex in the regulation of root system archit
151 hese results define a role for Med25 and the Mediator complex in the regulation of xenobiotic metabol
155 /TRAP100) important for the integrity of the Mediator complex, indicating a general Mediator requirem
156 (Arabidopsis thaliana) MED15 subunit of the Mediator complex interacts directly with WRI1 in the nuc
157 RNAPII initiation and elongation and how the Mediator complex intervenes in this molecular tug-of-war
164 MEDIATOR25 (MED25) subunit of the eukaryotic Mediator complex is a positive regulator of jasmonate (J
179 it (Sur2/TRAP150beta/DRIP130/CRSP130) of the Mediator complex is not essential for IE62-mediated acti
181 te to the regulation of pol II activity, the Mediator complex is required for expression of most, if
188 formed by RNA polymerase II (RNAPII) and the Mediator complex is the target of transcriptional regula
190 the MEDIATOR25 (MED25) subunit of the plant Mediator complex, is degraded by the proteasome and that
191 ited co-factor (ARC) complex or the metazoan Mediator complex, is essential for TGF beta/Activin/Noda
192 e genes, CDK8, which encodes a member of the mediator complex, is located at 13q12.13, a region of re
193 ectly interacts with the MED1 subunit of the Mediator complex, is recruited to the enhancer of the br
195 port that Med25, an associated member of the Mediator complex, is required for the association of HNF
196 nts revealed a novel connection to Cdk8, the Mediator complex kinase subunit, and Skn7, a key transcr
198 findings imply that a single subunit of the Mediator complex, MDT-15, integrates the activities of s
200 The evolutionarily conserved multiprotein Mediator complex (MED) serves as an interface between DN
202 Friend of GATA-1 (FOG-1), a component of the Mediator complex, Med1, facilitates GATA-1-dependent tra
204 tion in the component of the transcriptional mediator complex MED25 gene is responsible for the near
207 o subunits of the transcriptional regulatory Mediator complex, MED5a and MED5b, results in an increas
208 tor function, we isolated two forms of human Mediator complexes (Mediator-P.5 and Mediator-P.85) and
209 activator (SRC), as well as the multisubunit mediator complexes ("Mediator"), which may help recruit
211 d31 mutant phenotype is not similar to other Mediator complex mouse mutants, and target genes of othe
212 , the two largest subunits of the Drosophila mediator complex; mutations in either gene cause identic
213 ecently has it been shown that in yeast, the Mediator complex normally occupies promoters only transi
214 of many critical metabolic pathways, and the Mediator complex occupies a central role in recruiting R
215 ibody indicated that at least two classes of Mediator complexes occur, one containing CDK8 and cyclin
222 recruitment of transcription factors to form mediator complexes, phosphorylating RNA polymerase II, a
224 rging evidence suggests that the Arabidopsis Mediator complex plays a crucial role in these transcrip
226 min D-interacting protein 205 (DRIP205) is a mediator complex protein that anchors the complex to the
228 levels include cyclin-dependent kinase, the mediator complex, protein phosphatase 2A, and ribosomal
230 machinery (chromatin remodelling factors and Mediator Complex), punctate nuclear localisation in euch
231 a regulatory subunit of the transcriptional Mediator complex recently associated with two human synd
232 inding on one side and co-regulated with the Mediator complex recruitment and H3K27ac level changes a
235 larities to Med150/Rgr1-like subunits of the Mediator complex required for transcriptional activation
236 tations in components of the transcriptional Mediator complex, resulting in synthetic lethality and l
238 rometry of proteins in immunoprecipitates of mediator complexes revealed specific interactions betwee
240 hyroid hormone receptor associated proteins)/Mediator complex serves as a transcriptional coactivator
242 ator complex, analyze the composition of the Mediator complex solely from our data to demonstrate the
243 th cisplatin; a truncating mutation in MED1 (mediator complex subunit 1) following treatment with tam
245 lity group AT-hook 2 (HMGA2) rearrangements, mediator complex subunit 12 (MED12) mutations, biallelic
246 isolated from adjacent myometrium carried a mediator complex subunit 12 mutation, a genetic marker o
253 Here, we show that conditional loss of a Mediator complex subunit protein, Med23 in mouse neural
254 oylated Gcn4 requires the protein kinase and Mediator complex subunit Srb10, linking activator remova
255 ith decreased enrichment of H3K27ac and MED (Mediator complex subunit)-1, and reduced recruitment of
257 ansformed cells, an in vivo interaction with Mediator complex subunits has not been described previou
258 n with live-cell imaging revealed a role for Mediator complex subunits in regulating the duration of
260 n transformed cells, probably explaining why Mediator complex subunits were not identified among cell
261 id metabolism, and MED13, a component of the Mediator complex that controls nuclear hormone receptor
262 prevented binding of both MED1, a subunit of Mediator complex that facilitates enhancer-promoter inte
263 especially for the multicomponent TRAP/SMCC/Mediator complex that has emerged as the central regulat
264 he protein acetyl transferase p300, the TRAP/Mediator complex that interacts with the general transcr
265 t MED1 exists only in a subpopulation of the Mediator complex that is enriched with a number of disti
266 w that Trap220(-)(/)(-) cells possess a TRAP/Mediator complex that is relatively intact and compromis
267 dk8) is a component of the RNA polymerase II Mediator complex that predominantly represses the transc
268 k between Sox10 and the Med12 subunit of the Mediator complex that serves as a conserved multiprotein
269 I, a common set of initiation factors, and a Mediator complex that transmits regulatory information t
271 target gene transcription by recruiting the mediator complex through interactions with Med12 and Med
273 ptor-mediated transcription by anchoring the Mediator complex to diverse promoter-bound nuclear recep
274 hanistically, YAP interacts and recruits the Mediator complex to enhancers, allowing the recruitment
275 ein-coding gene SLC3A2 in cis by binding the Mediator complex to facilitate the establishment of enha
276 transcriptional regulators interact with the Mediator complex to initiate transcription and how those
277 ed proteins that act in association with the Mediator complex to negatively regulate transcription.
280 posed that human adenovirus E1A recruits the Mediator complex to transactivate transcription of viral
281 monstrated intranuclear translocation of the Mediator complex to viral replication compartments.
282 ontaining versus MED1/TRAP220-deficient TRAP/Mediator complexes to estrogen receptor (ER) and p53 tar
283 lusters of enhancers densely loaded with the Mediator complex, transcription factors and chromatin re
285 a demonstrate that the assembly state of the Mediator complex undergoes physiologic regulation during
286 the IE62 activation domain targets the human Mediator complex via the Med25 (ARC92) subunit and that
287 d hormone receptor-associated protein (TRAP)-Mediator complex was originally identified as a large mu
288 itamin D receptor interacting protein (DRIP)/mediator complex was purified from primary keratinocytes
290 e, and Tail modules form the core functional Mediator complex, whereas a fourth, the Cyc-C module, is
291 mplex, consistent with the size of the large Mediator complex, whereas following feeding, it converts
292 SPL10 interacts with MED25, a subunit of the Mediator complex, which bridges transcription factors an
293 ergy homeostasis via MED13, a subunit of the Mediator complex, which controls transcription by thyroi
294 components of the CDK8 kinase module of the Mediator complex, which is a deeply conserved regulator
296 subsequently it recruits the PALB2 and BRCA2 mediator complex, which stabilizes RAD51-DNA nucleoprote
297 a component of the evolutionarily conserved Mediator complex, whose in vivo function is not well und
298 by interaction of the CDK8 submodule of the mediator complex with beta-catenin/TCF transcriptional c
299 Similarly, an analysis of isolated TRAP/Mediator complexes with mutations in either or both of t
300 a gene that encodes a component of the yeast Mediator complex within the RNA polymerase II holoenzyme