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1 ids, on expression of genes regulated by the Ah receptor.
2 n murine hepatoma cells without a functional Ah receptor.
3 presence of either the high or low affinity Ah receptor.
4 emonstrated that the nuclear protein was the Ah receptor.
5 responsible for endogenous activation of the Ah receptor.
6 inked to regulation of the aryl hydrocarbon (Ah) receptor.
7 mpounds acting through the aryl hydrocarbon (Ah) receptor.
8 to alter the steady-state levels of cellular Ah receptor, a result that leads to a dramatic induction
11 the relationship between CYP1A1 activity and Ah receptor activation we used CYP1A1-deficient mouse he
12 Ah receptor degradation, an indicator of Ah receptor activation, does not occur after chrysin tre
15 n interest in the signaling mechanics by the Ah receptor (AHR) and the Ah receptor nuclear translocat
22 -PAS) proteins that interact with either the Ah receptor (AHR) or the Ah receptor nuclear translocato
25 -4'-nitroflavone (MNF), an antagonist of the Ah receptor (AhR), suggesting the possible involvement o
28 han 30 years, the aryl hydrocarbon receptor [Ah receptor (AHR)] has been extensively scrutinized as t
29 an interaction between the aryl hydrocarbon (Ah) receptor (AHR), a ligand-activated transcription fac
30 vation function of the acidic segment of the Ah receptor (amino acids 515-583) by reconstituting AhR-
31 UGT1A1-XRE, and competition experiments with Ah receptor and Arnt antibodies demonstrated that the nu
32 een two basic helix-loop-helix proteins (the Ah receptor and Arnt), interaction of the heterodimer wi
33 -dihydrodiol was linked to activation of the Ah receptor and induction of CYP1A1, an event that can l
35 tion between the activation of the cytosolic Ah receptor and the c-Src- and cdc37-containing HSP90 co
36 s cytoplasmic and associates with unliganded Ah receptor and with hsp90; 2,3,7,8-tetrachlorodibenzo-p
38 o-p-dioxin (TCDD) with the aryl hydrocarbon (AH) receptor and subsequent changes in gene expression h
40 oligonucleotides specific for XF1 or for the AH receptor, and prepared CAT reporter gene constructs c
41 ns for chrysin as an atypical agonist of the Ah receptor are intriguing at the molecular level, the r
43 e associated with delayed degradation of the Ah receptor because TCDD-initiated degradation is revers
44 ulated gene, CYP1B1, suggesting that altered Ah receptor binding to DNA does not mediate reduced CYP1
46 L327 led to enhanced nuclear accumulation of Ah receptor but with a reduced capacity to complement TC
47 ays confirm that chrysin is a ligand for the Ah receptor by competition with [3H]2,3,7,8-tetrachlorod
48 ted the mechanism by which activation of the Ah receptor by dioxin (TCDD) was accompanied by rapid ac
50 gest a novel signaling mechanism whereby the Ah receptor can stimulate proliferation and tumorigenesi
52 sh the sequence specificities of XF1 and the AH receptor complex, both of which bind to XRE1, a xenob
53 tosolic cdc37 complex, but not the cytosolic Ah receptor complex, we could show that the action of TC
54 ents demonstrated the presence of functional Ah receptor complexes in both high and low passage cells
56 ound expressing a lower affinity form of the Ah receptor (DBA allele), transgene and murine Cyp1a1 pr
59 lung, via an unknown mechanism, whereas the Ah receptor-dependent enzyme induction reduces adducts i
61 p38 by B[a]P-7,8-dihydrodiol was shown to be Ah receptor-dependent, indicating that metabolic activat
63 indicate that in uninduced mice, the normal Ah receptor facilitates formation of IQ/DNA adducts in l
68 ave shown that most rat hepatic genes of the Ah receptor gene battery are regulated by glucocorticoid
70 tor by siRNA indicates that chrysin uses the Ah receptor in conjunction with other factors through MA
78 interesting that the carboxyl region of the Ah receptor is associated with the transactivation regio
80 n involving function of the arylhydrocarbon (Ah) receptor is inhibited by the protein kinase C (PKC)
81 med by the lack of CYP1A1/2 induction in the Ah receptor knock-out mice (Ahr-1-) as well as in murine
82 sion, as demonstrated by reductions in total Ah receptor levels after overexpression of constitutivel
84 egnenolone-16alpha-carbonitrile (PCN) or the Ah receptor ligand 2,3,7,8-tetrachlorodibenzo-p-dioxin (
86 erase activity was demonstrated by a loss of Ah receptor ligand inducibility when the XRE core region
87 either through the action of a high affinity Ah receptor ligand or by an alternative regulatory pathw
88 sults establish lipoxin A4 as a new class of Ah receptor ligand, one that differs dramatically from c
89 cells that had not been exposed to exogenous Ah receptor ligands already contained transcriptionally
90 the gene was characterized and induction by Ah receptor ligands was regionalized to bases -3338 to -
92 so inducible with aryl hydrocarbon receptor (Ah receptor) ligands such as 2,3,7,8-tetrachlodibenzo-p-
95 iotic inducible via an aromatic hydrocarbon (Ah) receptor-mediated pathway, depending upon the tissue
96 resence of additional mechanisms, other than Ah-receptor-mediated, by which the ALDH3 gene can be dif
100 inant-negative DNA-binding-defective AhR and Ah receptor nuclear translocator (Arnt) mutants provided
101 R), a transcription factor that binds to the Ah receptor nuclear translocator (ARNT) to regulate the
102 eptor (AHR) and its DNA binding partner, the Ah receptor nuclear translocator (ARNT), are basic helix
105 ceptor to the nucleus, dimerization with the Ah receptor nuclear translocator, and binding of this he
110 y and an antagonist of the aryl hydrocarbon (Ah) receptor, reduced the excretion rate of oxo8Gua.
112 adiol did not alter the induction of another Ah receptor-regulated gene, CYP1B1, suggesting that alte
113 gene assays revealed the presence of several Ah receptor response-element motifs in the promoter and
115 d a transient increase in mRNA levels of the Ah receptor-responsive gene CYP1A1, which peaked at 4 h,
116 proliferative, antiapoptotic function of the Ah receptor that likely plays a role in tumor progressio
117 LD78, MIP-1beta, insulin-induced protein and AH-receptor; the second set of genes includes those invo
120 ydrocarbon (AH) hydroxylases and bind to the AH receptor, which is believed to mediate toxicity.
121 s its toxic action via the aryl hydrocarbon (Ah) receptor, which induces a battery of xenobiotic-meta
123 These MEF cells express either b-1 or d-type Ah receptors, with high and low affinities for AhR agoni