コーパス検索結果 (1語後でソート)
通し番号をクリックするとPubMedの該当ページを表示します
1 on of pannier, a cardiogenic gene encoding a Gata factor.
2 X17CNXC zinc fingers typical of a vertebrate GATA factor.
3 ) and the C-terminal zinc finger of the same GATA factor.
4 ied by the activity of the divergent MED-1,2 GATA factors.
5 tors, the hypoxia-regulated factor HIF1, and GATA factors.
6 ells can be manipulated by the expression of GATA factors.
7 x5/Dlx6 function, it may require one or more GATA factors.
8 binding to DNA and physical association with GATA factors.
9 regulators, Mix-like paired-homeodomain and GATA factors.
10 evelopment through physical interaction with GATA factors.
11 transcriptional activation mediated by other GATA factors.
12 at found with the vertebrate two zinc finger GATA factors.
13 e specification of hematopoietic mesoderm by GATA factors.
14 at the seventh position of the Zn finger of GATA factors.
15 with the differentiation-promoting action of GATA factors.
16 we summarize the current knowledge of plant GATA factors.
17 motifs for RUNX factors that cooperate with GATA factors.
18 ltipotent LaTPs upon conditional deletion of GATA factors.
19 essing the expression of stem cell-promoting GATA factors.
20 fect is mediated in part by interaction with GATA factors.
21 LISM-INVOLVED (GNC) and CYTOKININ-RESPONSIVE GATA FACTOR 1 (CGA1) act downstream of both light and ph
25 h anemia resolution, involving repression of GATA factor-accessible regions and activation of ETS fac
26 previously shown that the MED-1,2 divergent GATA factors act apparently zygotically to specify the f
28 genetic and molecular analysis that the two GATA factors act upstream from the flowering time regula
31 e show how integration of Bmp4 signaling and Gata factor activity controls the progression of hematop
34 demonstrate that PBP interacts with all five GATA factors analyzed, GATA-1, GATA-2, GATA-3, GATA-4, a
35 x between the DNA binding domain of a fungal GATA factor and a 13 base-pair oligonucleotide containin
37 Several lines of evidence suggested that GATA factors and AR act cooperatively to activate Pp tra
38 ctors share highly specific association with GATA factors and are substantially interchangeable with
39 n of mouse embryonic stem cells deficient of GATA factors and conclude that GATA-4 is required for ES
40 in tumor cells, suggesting that the loss of GATA factors and dedifferentiation are irreversible proc
41 ior heart field and support a model in which GATA factors and ISL1 serve as the earliest transcriptio
45 nues with Zfh1 activation of Serpent (Srp; a GATA factor), and terminates with Srp activation of U-sh
48 portant functional interplay between Ikaros, GATA factors, and the NOTCH signaling pathway in specifi
49 activities of both mammalian and Drosophila GATA factors are controlled in part by physical interact
50 a4 in mouse embryonic pancreas and show that GATA factors are essential regulators of the proliferati
51 ndings demonstrate that the EGL-18 and ELT-6 GATA factors are essential, genetically redundant regula
55 ddition to radiation, we found that specific GATA factors are important for other stressors such as r
56 trophy, demonstrating that cardiac-expressed GATA factors are necessary mediators of this process.
58 ypertrophy-associated genes, suggesting that GATA factors are sufficient regulators of cardiomyocyte
60 t that elt-5 and -6, adjacent genes encoding GATA factors, are essential for the development of the l
61 e to valine in the DNA-binding domain of the GATA factor AreA results in inability to activate some A
66 ng gene duplication and modular evolution of GATA factors based upon inclusion of a class IV zinc fin
67 ese factors activate a sequential cascade of GATA factors, beginning with their immediate targets, th
70 t-expressed genes possess a preponderance of GATA factor binding sites and one GATA factor, ELT-2, fu
74 tors regulate GnRH transcription through two GATA factor-binding motifs that occur in a tandem repeat
77 in animals and fungi and are referred to as GATA factors by virtue of their affinity for promoter el
79 njection ventrally of a dominant-interfering GATA factor (called G2en) induced the formation of secon
82 of a single transcription factor, the ELT-7 GATA factor, can convert the identity of fully different
84 similar to that of vertebrates but only one GATA factor, Ci-GATAa, is expressed in the heart progeni
89 the potential for a regulatory loop in which GATA factors control the expression of their partner pro
90 rated micro RNA expression and function into GATA factor coordinated networks and provided mechanisti
92 ies establish a transcriptional hierarchy of Gata factor dependence during hematopoiesis and demonstr
93 of these and previous reports, we infer that GATA factor dependence is a critical aspect of FOG prote
94 evealed unique +9.5 site activity to mediate GATA factor-dependent chromatin structural transitions.
95 erable progress has been made in elucidating GATA factor-dependent genetic networks that control bloo
96 erable progress has been made in elucidating GATA factor-dependent genetic networks that control red
98 ference to poor ones (proline) by repressing GATA factor-dependent transcription of the genes needed
100 rative bioinformatics analyses revealed that GATA factors directly regulate hundreds of common genes
105 derance of GATA factor binding sites and one GATA factor, ELT-2, fulfills the expected characteristic
106 We have discovered a second gut-specific GATA factor, ELT-7, that profoundly synergizes with ELT-
107 eplace the complete set of endoderm-specific GATA factors: END-1, END-3, ELT-7 and (the probably non-
108 ntaining transcriptional regulators known as GATA-factors ensures efficient utilization of available
109 partially redundant, adjacent genes encoding GATA factors essential for viability, seam cell developm
110 chanisms underlying this restriction and how GATA factors establish genetic networks, we used ChIP-se
114 scriptional regulators and is the only known GATA factor expressed in the distal epithelium of the lu
116 lasmids with wild-type and dominant negative GATA factor expression vectors demonstrated that both GA
118 ng that the MEDs are atypical members of the GATA factor family that do not recognize GATA sequences.
122 elucidated mechanisms by which FOGs regulate GATA factor function and discuss how these factors use t
124 lation is leukemogenic, and its influence on GATA factor function is unknown, this mechanistic link h
127 ive to consider mechanisms underlying normal GATA factor function/regulation and how dissecting such
128 n a genome wide scale that the hematopoietic GATA factors GATA-1 and GATA-2 bind overlapping sets of
129 ion directly at promoters, the hematopoietic GATA factors GATA-1 and GATA-2 often assemble dispersed
131 Herein, we discuss how the hematopoietic GATA factors (GATA-1-3) function via a battery of mechan
132 In this study, we report that a heterologous GATA factor, GATA-4, was competent in supporting the dev
133 We also demonstrate that a closely related GATA factor, GATA4, is expressed transiently in the preh
134 oensis and C. monodelphis orthologues of the GATA factor gene elt-3 are expressed in the early E line
138 ta support the contention that regulation of GATA-factor gene expression is tightly and dynamically c
139 In Drosophila melanogaster, five different GATA factor genes (pannier, serpent, grain, GATAd and GA
140 is, we identified the functionally redundant GATA factor genes egl-18 and elt-6 as Wnt pathway target
141 GATA5, the only one of the six vertebrate GATA factor genes not yet inactivated in mice, is expres
143 Ure2, the protein that negatively regulates GATA factor (Gln3, Gat1)-mediated transcription in Sacch
144 charomyces cerevisiae requires activation by GATA factor Gln3p or Nil1p and is prevented by the prese
145 y does not interfere with the binding of the GATA factor Gln3p to GATAAG sites but acts directly on G
146 ger region highly homologous to those of the GATA factors Gln3p and Nil1p as an antagonist of Nil1p a
147 f a cross-repressive interaction between the GATA factors GNC and GNL and the MADS box transcription
150 n Drosophila, the existence of a cardiogenic GATA factor has been implicated through the analysis of
156 ily conserved domain that determines B-class GATA factor identity and provides a further subclassific
157 servations identify GATA6 as the predominant GATA factor in the maintenance of endodermal gene expres
161 of late endoderm development, but a role for GATA factors in establishing the endoderm is unknown.
165 omplexes that are thought to sequester these GATA factors in the cytoplasm of cells cultured in exces
166 sible loss of expression of HNF3 (Foxa2) and GATA factors in the endoderm and the absence of factors
168 for heart development and acts downstream of GATA factors in the pre-cardiac mesoderm to specify line
169 Herein, we analyzed the role of several GATA factors in the regulation of the erythropoietin gen
170 e first direct demonstration of a target for GATA factors in the vertebrate intestinal epithelium.
171 eracts specifically with the amino finger of GATA factors in the yeast two-hybrid system and in mamma
177 rker genes in animal cap assays, while other GATA factors induce these genes only weakly, if at all.
180 rm cells to show that a DNA-binding site for GATA factors is occupied on a liver-specific, transcript
182 attern, indicating that a normal function of GATA factors is to limit the boundary of the Nkx2.5 expr
183 tional program, mediated at least in part by GATA factors, is critical in presumptive foregut endoder
186 genitourinary system and suggest that other GATA factors may have functions overlapping those of GAT
187 establish fundamental principles underlying GATA factor mechanisms in chromatin and illustrate a com
188 bioactive lipids as essential components of GATA factor mechanisms to control cell state transitions
192 However, our experiments also indicate that GATA factors might normally antagonize transcription of
194 In addition, elt-3, which encodes another GATA factor normally expressed in non-seam epidermis, is
203 ring the regulation of nmr, we find that the GATA factor Pannier is essential for cardiac expression,
205 of Friend of GATA proteins and the role that GATA factors play during cell fate choice, these factors
207 t assembly of a protein complex containing a GATA-factor, presumably GATA-1 or GATA-2, is critical to
208 with GATA factor mutants and novel chimeric GATA factors provided evidence that both GATA-1 and GATA
210 ver, accumulating evidence now suggests that GATA factor regulation may occur by two separate pathway
212 eases during normal aging, and both of these GATA factors repress expression of elt-3, which shows a
213 derm differentiation, including a cascade of GATA factors required for development and maintenance of
214 els determine the threshold concentration of GATA factors required for PrE-like differentiation, and
215 ith the Pp in vitro, (iii) overexpression of GATA factors rescued expression from mutant Pp construct
217 on occurs through specific expression of the GATA factor Serpent (Srp) in the lymph-gland primordium.
223 mbryogenesis and larval development, and the GATA factor Serpent is essential for Ush embryonic expre
227 , or chick embryos depleted specifically for GATA factors, show in addition abnormal foregut developm
229 pathway, including positive feedback loops, GATA factors, SoxB, Brachyury and a previously underemph
231 hromatin sites, we propose that differential GATA factor stability is an important determinant of chr
232 ry of mechanistic permutations, which can be GATA factor subtype, cell type, and locus specific.
234 both Gata1 and Gata2, or independent of both Gata factors, suggesting that multiple pathways regulate
236 ults indicate that FOG-1 is a determinant of GATA factor target gene sensitivity by either facilitati
237 re identify a novel small-molecule-activated GATA factor that is required to regulate the cell type-s
238 ine, as well as to overexpression of the two GATA factors that are normally involved in intestinal di
240 One mode involves cooperative binding by two GATA factors that interact with each other through prote
241 These results indicate that similar to other GATA factors, the GATA-3 gene can be controlled by two p
242 r gene expression is highly regulated by the GATA factors themselves in an interdependent manner.
243 or negative coregulators that cooperate with GATA factors to control right ventricular-specific gene
244 vidual contributions of the three vertebrate GATA factors to endoderm formation have been unclear.
245 FOG-like proteins are corepressors that link GATA factors to histone deacetylation and nucleosome rem
248 In contrast, FOG1 antagonizes the ability of GATA factors to promote mast cell (MC) development.
251 ed by anthracyclines, the ability of ectopic GATA factors to rescue anthracycline-induced apoptosis w
252 The discovery of the GATA binding protein (GATA factor) transcription factor family revolutionized
254 regulation of GATA-2, an essential mast cell GATA factor, via switching of GATA-1 for GATA-2 at a key
255 ave shown that the combined absence of these GATA factors virtually ablates primitive erythroid cell
259 5, a target of the MED-1 and MED-2 divergent GATA factors, was previously found to result in a profou
261 d differentiation can be replaced by another GATA-factor, we generated a knock-in mutation of the GAT
264 nsidering control of the nitrogen-responsive GATA factors when studying the regulation of the protein
265 Neurospora possesses at least five different GATA factors which control different areas of cellular f
266 nal signaling regulates the translation of a GATA factor, which is the specific transcriptional activ
268 y increasing the expression of GATA-binding (Gata) factors, which suppressed expression of the microR
269 otein-protein interactions of the individual GATA factors with additional pathway-specific regulatory
270 with previous studies linking regulation by GATA factors with c-Jun and BRG1, provides genome-wide e
271 mma transcriptional activity, interaction of GATA factors with C/EBP is necessary for their ability t
272 eable and interact with different endodermal GATA factors with only modest differences in affinity.
273 Our results demonstrated that, unlike the GATA factors, ZFPM1 is not essential for the early diffe