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1 ctivity and availability of free Zn(II) from metallothionein.
2 r Ca2+ decay, all of which were nullified by metallothionein.
3 elated protein biomarkers were attenuated by metallothionein.
4 rich region, with similarity to a Drosophila metallothionein.
5 eater than 1:1 with the cysteine residues of metallothionein.
6 redox and metal-binding states of mammalian metallothionein.
7 enic, thereby defining a functional role for metallothionein.
8 rsed by IL-22 treatment via the induction of metallothionein.
9 dismutase (SOD1), and mammalian zinc-bonded metallothionein.
10 f this protein functions as a copper-binding metallothionein.
11 y (designated as CvMT-I) of alphabeta-domain metallothioneins.
12 is likely bound to cytosolic proteins, like metallothioneins.
13 pper bound to cysteine-rich proteins such as metallothioneins.
14 us stimulation of PRRs induces expression of metallothioneins.
15 o the regulation of the metal response gene, metallothionein 1 (MT1), and defined the reproductive be
16 on the injury context and it is mediated by metallothionein 1 (MT1)-driven modulation of resistance
19 proline-rich protein 2B (SPRR2B; 3.6-fold), metallothionein 1 isoforms (MT1B/MT1A/MT-1F; from 2.9- t
20 ings, these results suggest that blockade of metallothioneins 1 and 2 constitutes a promising approac
21 vivo We found that concomitant abrogation of metallothioneins 1 and 2 results in activation of the Ak
24 pathway is crucial for maintaining cellular metallothionein-1 levels to counteract ROS accumulation,
26 interleukin-6 (IL-6; 14-fold, P < 0.001) and metallothionein-1A (MT-1A; 187-fold, P < 0.001) mRNA exp
27 such as versican, and novel ones, including metallothionein 1E (MT1E) and nicotinamide N-methyltrans
30 uses stable isotopically enriched (67)Zn(7) metallothionein 2 ((67)Zn(7)-MT-2) to quantitatively det
31 Cd(4)-alpha-domain was prepared from rabbit metallothionein-2 (MT 2), and its three-dimensional stru
33 ed increased activity of the zinc-responsive metallothionein 2a (MT2a) promoter when ZnT5b was co-exp
36 es and the mechanism for metalation of human metallothionein-2A (MT), an intrinsically disordered pro
37 1 (Uhmk1), insulin-induced gene 1 (Insig1), metallothionein 3 (Mt3), tetraspanin 2 (Tspan2), peroxir
38 hese treatments, three of these, neuronatin, metallothionein 3 and cystatin E/M, were frequently hype
40 showed increased staining for PSMD11 and the metallothioneins 5 days post-SCI, along the peripheral r
41 Increased protein levels for PSMD11 and the metallothioneins 5 days post-SCI, specifically along the
43 ly weakly bound, with a log K of 7.7, making metallothionein a zinc donor in the absence of thionein.
44 contrasting agent for TEM, we have evaluated metallothionein, a small metal-binding protein, reacted
46 CXC), general stress (HSP70), metal-binding (metallothionein-A), and xenobiotic metabolism (Cyp1a1) u
49 rophy were dramatically up-regulated (lipin, metallothionein, AMP deaminase, RNA helicase-related pro
52 mediated through reductive zinc insertion by metallothionein and subsequent proteolysis involving a c
53 olecular structures and redox chemistries of metallothionein and thionein determine Zn(II) availabili
54 d system to identify a putative cotton fiber metallothionein and to confirm it as a protein that coul
55 te immune responses, with a central role for metallothioneins and autocrine/paracrine signaling via A
57 efenses (catalase, glutathion S-transferase, metallothionein), and genotoxicity are the most sensitiv
59 xpressed significantly higher levels of p21, metallothionein, and hemoglobin alpha1 proteins by Weste
60 ensitive mutants, cup1Delta cells lacking Cu-metallothionein, and particularly sod1Delta cells lackin
61 centration in brain is in part controlled by metallothionein, and zinc is released in the hippocampus
62 ledge of the evolutionary diversification of metallothioneins, and indicate differences in metal-bind
63 se in gene expression of UPP components, the metallothioneins, and the protease inhibitor, SLPI, with
71 (II), cause dissociation of Zn(II) ions from metallothionein at pH 7.4 (Zn(7)T <==> Zn(7-n)T + nZn(2+
78 yte viability, such as BCL2-related protein, metallothioneins, CD71, and SOCS3, was up-regulated at 4
81 ne the influence of protein concentration on metallothionein conformation, the isolated Cd(4)-alpha-d
83 at thionein, the reduced, metal-free form of metallothionein, could function as a reducing system for
87 hat are unable to produce the major forms of metallothionein do not produce lead inclusion bodies, wh
90 s, our findings implicate a role of elevated metallothionein expression in the clinical behavior of M
92 lls are stimulated continually through PRRs; metallothionein expression was up-regulated in human and
94 opper toxicity and fail to up-regulate MtnA (metallothionein) expression in response to excess Cu.
96 down-regulated lncRNAs and 8 down-regulated metallothionein-family genes are significantly associate
99 fish Danio rerio, evaluated by assessment of metallothionein gene (mt2) expression, was reduced in th
101 plementation increases intestinal copper and metallothionein gene expression, and Ctr1 protein levels
103 ding possible metal-binding ligands from the metallothionein gene family, and a P-type ATPase that is
104 integration of avian retrovirus DNA into the metallothionein gene, before and after its induction to
105 including a metal response element from the metallothionein gene, contribute to the reporter inducti
110 lammatory genes and strongly induces several metallothionein genes encoding anti-inflammatory and ant
113 propriate expression level of the endogenous metallothionein genes is achieved only when the activiti
114 We exploited the robust response of the metallothionein genes to heavy metal as a model for tran
120 nts with a polymorphism in a gene regulating metallothionein had lower platinum concentrations and sh
122 ction significantly decreased zinc-dependent metallothionein I (MT-I) gene transcription without alte
124 d in their accumulation; and 2) unlike mouse metallothionein I and zip4 mRNAs, the abundance of zip1,
126 croglia and the Bergmann glial expression of metallothionein I/II and the hyaluronan receptor CD44 we
127 on factor 1 (MTF1) mediates the induction of metallothioneins I and II by zinc and stress signals.
129 ssociation of transcription factors with the metallothionein-I promoter was examined using chromatin
133 n of cyan fluorescent protein (CFP), chicken metallothionein II (MT-II), and yellow fluorescent prote
137 te that both LRP1 and LRP2 are necessary for metallothionein II-mediated chemotactic signal transduct
145 omeostasis (Menkes Copper ATPase (Atp7a) and metallothionein) in the duodenal epithelium of iron-defi
146 tation prevents alcoholic liver injury in an metallothionein-independent manner by inhibiting the gen
149 and induced expression of a gene encoding a metallothionein involved in detoxification by metal ion
151 ere it is shown that the previously reported metallothionein is a prototypical member of a subfamily
152 e Zn(3)S(9) and Zn(4)S(11) clusters of human metallothionein is in a tetrathiolate coordination envir
153 f high copper exposure, Ctr1 is endocytosed, metallothionein is induced, and ATP7A moves to a more ba
155 olecular-weight proteins like calmodulin and metallothioneins is challenging and requires modificatio
156 evidence that the transcriptional control of metallothioneins is fundamentally divergent in lower inv
158 sponse that manifested in elevated levels of metallothionein isoform and zinc transporter 1 (ZnT1) tr
159 n events that have led to the development of metallothionein isoforms containing one to four alpha-do
160 onal genomics is used to explore the role of metallothionein isoforms in driving metal tolerance.
164 on by Zn-depletion conditions is dampened in metallothionein knockout mice, suggesting that intracell
165 ac hypertrophy and fibrosis were produced in metallothionein-knockout (MT-KO) mice fed an alcohol-con
167 hepatic tumor necrosis factor-alpha in both metallothionein-knockout and wild-type mice, indicating
168 ediated signaling controls the expression of metallothioneins, known inhibitors of STAT1 phosphorylat
169 ntributed to the regulation in expression of metallothioneins, levels of zinc, autophagy, and bacteri
171 The small Arabidopsis genome contains nine metallothionein-like (MT) sequences with classic, cystei
173 ribution in two subcellular fractions (i.e., metallothionein-like proteins and metal-rich granules).
174 l, which includes metallothioneins (MTs) and metallothionein-like proteins and peptides (MTLPs), appe
175 sporters, copper ion chaperones and putative metallothionein-like proteins were significantly more ab
176 hemokines, antiviral proteins, histones, and metallothioneins, many of which were also induced by inf
177 Collectively, our data demonstrated that metallothionein may alleviate aging-induced cardiac cont
184 n(2+) and (65)Zn accumulation, as well as by metallothionein mRNA induction, all indicating that Zip1
186 the relative contributions of ATP7A and the metallothioneins MT-I and MT-II to cell viability under
187 5Y cells, and the neuroprotective effects of metallothionein (MT) against salsolinol toxicity in MT o
188 genic mice that overexpress cardiac-specific metallothionein (MT) are highly resistant to diabetes-in
190 ce-coupled proteins transferrin, albumin, or metallothionein (MT) as well as the toxic cadmium-MT (Cd
192 at single-nucleotide polymorphisms (SNPs) in metallothionein (MT) genes may underlie interindividual
193 transgenic overexpression of the antioxidant metallothionein (MT) in pancreatic beta cells provided b
195 identification and characterization of human metallothionein (MT) isoforms in complex cell cultures u
198 sperm genomes contain several genes encoding metallothionein (MT) proteins that can bind metals inclu
200 ice that overexpress the antioxidant protein metallothionein (MT) specifically in podocytes (Nmt mice
201 m zinc toxicity by inducing proteins such as metallothionein (MT) that bind it tightly, by sequesteri
205 ke growth factor binding protein 1 (IGFBP1), metallothionein (MT), and cyclin D1, as well as HNF-4alp
207 ripheral blood, we evaluated the response of metallothionein (MT), zinc transporter, and cytokine gen
208 pe (WT) and MT-knockout (MT-KO) mice lacking metallothionein (MT)-1 and MT-2 were exposed to three at
209 Of 15,000 mouse cDNA fragments studied, metallothionein (Mt)-1 and Mt2 emerged as candidate gene
213 Previous studies using a cardiac-specific metallothionein (MT)-overexpressing transgenic mouse mod
214 phy and massive foveolar hyperplasia in both metallothionein (MT)-TGFalpha mice and patients with Men
217 g to investigate the transcriptome, we found metallothionein (MT, particularly MT-I) transcripts were
218 ted with transcriptionally silent methylated metallothionein (MT-I) promoter in the mouse lymphosarco
222 s (UBE3C, Atrogin-1, MURF1, and PSMD11), the metallothioneins (MT1A, MT1F, MT1H), and the protease in
223 , SLC17A3, SLC12A3, and SLC30A2) and class 1 metallothioneins (MT1F, MT1G, and MT1X) in HLAi transpla
224 detoxifying and antioxidant genes, including metallothioneins MT1H, MT1M, and MT1X that have previous
226 nematode Caenorhabditis elegans has only two metallothioneins, mtl-i and mtIl-2, thus making it an id
228 pools, whereas the MMW pool, which includes metallothioneins (MTs) and metallothionein-like proteins
235 sequestered labile Zn by inducing binding to metallothioneins (MTs) in a STAT3 and STAT5 transcriptio
237 examined the profiling of gene expression of metallothioneins (MTs) in human tissues from cadaver eye
240 es a gene that encodes the copper-protective metallothionein MymT, was highly induced in wild-type Mt
241 olution structure of Neurospora crassa Cu(6)-metallothionein (NcMT) polypeptide backbone was determin
242 scent protein (GFP) expressing transgenes, a metallothionein null allele, as well as RNAi mediated me
243 etate were tested in groups (n = 25) of male metallothionein-null and WT mice receiving drinking wate
247 ll carcinoma also occurred in a lead-treated metallothionein-null mouse, whereas none occurred in WT
248 that metallothionein-I/-II double knockout (metallothionein-null) mice that are unable to produce th
250 This study examined the role of antioxidant metallothionein on cardiomyocyte function, superoxide ge
251 ate the impact of the free radical scavenger metallothionein on high-fat diet-induced myocardial, int
252 sociated stress kinases via the induction of metallothionein, one of the most potent antioxidant prot
255 all zinc reserve that includes zinc bound to metallothionein or zinc stored in the Golgi or in other
257 tocin (STZ) (150 mg/kg) in cardiac-specific, metallothionein-overexpressing transgenic (MT-TG) mice a
263 expression of Bcl-2 in transgenic mice by a metallothionein promoter caused increased LPS-induced go
264 an Arf transgene driven by a zinc-inducible metallothionein promoter, sumoylation of endogenous Mdm2
267 o episomal vectors predictably re-programmed metallothionein-promoter-driven reporter expression.
268 haromyces cerevisiae, the genes encoding the metallothionein protein Cup1 are located in a tandem arr
273 plasmin, complement components, lipocalin-2, metallothionein, serine protease inhibitor-2, transferri
274 gh levels of copper induce the expression of metallothioneins, small sulfhydryl-rich proteins with hi
275 st report of a possible single-"superdomain" metallothionein structure for Zn(2+) and Cd(2+) binding
276 nscript levels of a constitutively expressed metallothionein, suggesting increased copper chelation c
278 of a small molecule chemical analogue of the metallothionein system in which an N-O reactant serves t
279 In yeast, the CUP1 gene encodes a copper metallothionein that is strongly induced in response to
280 to the sequestration of cytosolic copper by metallothioneins that are markedly up-regulated in Atp7b
281 nction module is downstream of intracellular metallothioneins that regulate zinc metabolism and can b
284 es in the levels of intracellular free zinc, metallothionein transcripts, inhibition of thioredoxin r
288 ptible to oxidative stress, and induction of metallothionein under oxidative stress was reduced in BA
289 These studies reveal new roles for ATP7A and metallothioneins under both Cu deficiency and excess.
290 in, and analysis of Zn(II) dissociation from metallothionein using the fluorescent chelating agents F
291 NMR determination of the structure of Cd(7)-metallothionein was done previously using a relatively l
293 id percussion, analysis of the metal load of metallothionein was used as an indicator of changes in c
294 expression of the prioritized gene family of metallothioneins was evaluated in postmortem patient bra
296 (2+) and Zn(2+), but not Cu(2+), induced the metallothioneins, whereas Cd(2+) and Cu(2+), but not Zn(
297 ed the expression of multiple genes encoding metallothioneins, which bind and regulate levels of intr