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1 tructure of an acyl transferase inhibited by vanadate.
2 y dissociation of the trapped nucleotide and vanadate.
3 in the absence of molybdate, with or without vanadate.
4 d in the presence or absence of molybdate or vanadate.
5 iazotrophically with or without molybdate or vanadate.
6 dition of BtuF and inhibited by sodium ortho-vanadate.
7 phosphate but was blocked by ADP-AlF3 or ADP-vanadate.
8 n, was reversed by the phosphatase inhibitor vanadate.
9 32-kDa fragment and abolished sensitivity to vanadate.
10 K(+) and a 4-5-fold decreased sensitivity to vanadate.
11 ) blocked the release of NO brought about by vanadate.
12 e I derived peptides as the apical ligand to vanadate.
13 sphorylated intermediate and is inhibited by vanadate.
14 ains is necessary to allow inhibition by ADP-vanadate.
15 he growth medium, and strongly stimulated by vanadate.
16 with the trapping of [14C]ADP in presence of vanadate.
17 ne H(+) gradient but completely abolished by vanadate.
18 ATP-hydrolysis transition state analogue ADP.vanadate.
19 e to the phosphoryl transition state analog, vanadate.
20 ated with the tyrosine phosphatase inhibitor vanadate.
21 bited by low concentrations of molybdate and vanadate.
22 by biotin and was only moderately reduced by vanadate.
23 binding cassette (ABC) transporter inhibitor vanadate.
24 nd in the absence of ATP and with or without vanadate.
25 is highly resistant to both thapsigargin and vanadate.
26  the Ca(2+)-pump inhibitors thapsigargin and vanadate.
27 state that is unable to bind thapsigargin or vanadate.
28 absence and in the presence of tungstate and vanadate.
29 ar levels by 1:1 complexes of catechols with vanadate.
30 1.52 A structure of the D10A mutant bound to vanadate.
31 igargin (0.8 micrometer) but is inhibited by vanadate (1 mM) or cyclopiazonic acid (1 microM).
32                     Activity is abolished by vanadate (10 mM), but is less sensitive to phosphate (IC
33 by the tyrosine phosphatase inhibitor sodium vanadate (100 microm).
34 allize a quaternary complex containing Tdp1, vanadate, a DNA oligonucleotide, and a tyrosine-containi
35 ntibody but only minimally affected by 5 muM vanadate, a dynein inhibitor, or by anti-dynein antibody
36 vity, or the ATP-dependent transporters with vanadate, a general ATPase inhibitor.
37 ves enter the plant cell; and (3) blocked by vanadate, a known inhibitor/blocker of ATP-dependent tra
38 e level of pTyr-modified alphaII spectrin by vanadate, a phosphatase inhibitor, implies a dynamic bal
39 ific inhibitors of p38 MAP kinase and sodium vanadate, a potent protein-tyrosine phosphatase inhibito
40 corrosion mechanisms and apply it to bismuth vanadate, a state-of-the-art photoanode.
41 s H(2)O(2) or with the phosphatase inhibitor vanadate abrogates the inhibition of ERK1/2 phosphorylat
42              Treatment of cultured CGPs with vanadate activated ERKs and JNKs but not p38 MAPK and al
43                                              Vanadate activates the phosphoinositide3-kinase (PI3-K)/
44         Trapping of ADP (or 8-azido-ADP) and vanadate (ADP.Vi or 8-azido-ADP.Vi) at the catalytic sit
45 l transition state specifically, as shown by vanadate-ADP and beryllium fluoride-ADP trapping experim
46                                              Vanadate adsorbed to goethite, ferrihydrite, gibbsite, a
47                         An extremely reduced vanadate affinity of this mutant indicates that the slow
48                                              Vanadate, an environmental toxicant, causes developmenta
49 metre-resolution structures of MsbA with ADP-vanadate and ADP reveal an unprecedented closed and an i
50 the absence of ligands and in complexes with vanadate and AMP.
51 omplete loss of sensitivity to inhibition by vanadate and an approximately 100-fold increase in the r
52                               The complex of vanadate and benzohydroxamic acid is a competitive inhib
53 to MgATP and constants for the inhibition by vanadate and erythrosin B remain unchanged.
54 emoving Mg(2+) in the presence or absence of vanadate and F(-) to reduce general phosphatase activity
55 and reversibly inhibited by 1:1 complexes of vanadate and hydroxamic acids.
56 ed by low concentrations of 1:1 complexes of vanadate and hydroxamic acids.
57 lved in inhibition of the mutase activity by vanadate and identifies a water molecule, observed in th
58             Phosphorylation was inhibited by vanadate and sensitive to KOH and hydroxylamine, consist
59  the membrane transporter in the presence of vanadate and simultaneously loses its high affinity for
60 inhibition of alkaline phosphatase by sodium vanadate and sodium arsenate has been examined, and reve
61 acids form inhibitory ternary complexes with vanadate and the enzyme, although, in certain cases of t
62 nd to the phosphate transition state analogs vanadate and tungstate.
63 tence of occluded species in the presence of vanadate and/or ATP.
64 logy, and the effect of an ATPase inhibitor (vanadate) and a sulfyhdryl reagent (N-ethylmaleimide) wa
65 ontaining the yeast or human mutant protein, vanadate, and ATP.
66 lex between the catalytic cysteine of PTP1B, vanadate, and the peptide DADEYL, a fragment of a physio
67 tion characteristics of the first trinuclear vanadate are presented.
68 nd structure and charge transport of bismuth vanadate are systematically elucidated by ab initio calc
69 of the location and number of protons on the vanadate as a function of pH.
70     Taking advantage of the dual function of vanadate as a transition state analogue and as a photoac
71 idation, our study establishes ternary metal vanadates as a prolific class of photoanode materials fo
72                                          The vanadate assumes a trigonal bipyramidal geometry in both
73  a crystal structure of the VHZ complex with vanadate at 1.1 A resolution, with a detailed structural
74 al changes associated with calcium, ATP, and vanadate binding to purified PMCA.
75                                      Bismuth vanadate (BiVO(4)) has recently emerged as a promising m
76                                      Bismuth vanadate (BiVO4) has a band structure that is well-suite
77                                      Bismuth vanadate (BiVO4) is a promising photoelectrode material
78 in-tyrosine phosphatase inhibition by sodium vanadate both EGFR expressing Chinese hamster ovary (CHO
79  uptake is inhibited by cholorgenic acid and vanadate, both specific G6PT inhibitors.
80                            With both ADP and vanadate bound, the stem and stalk emerge from the head
81              ATP could bind to the different vanadate-bound states of the enzyme either in the presen
82 [(C(4)H(9))(4)N](3)(V(3)O(9)) with the known vanadates [(C(4)H(9))(4)N](3)(HV(4)O(12)), [(C(4)H(9))(4
83 c leaflet of the bilayer and is sensitive to vanadate, Ca(2+), and modification by sulfhydryl reagent
84                                              Vanadate can often bind to phosphoryl transfer enzymes t
85  a photoactive chemical, we demonstrate that vanadate catalyzes the UV-dependent cleavage of the poly
86  modeling showed that a pentacoordinated 1:1 vanadate-catechol complex readily fits into the class C
87 mes) were competitively inhibited by the 1:1 vanadate-catechol complexes.
88                             We conclude that vanadate causes NO release via a mechanism that involves
89                                          The vanadate cofactor changes its protonation from quadruply
90                                          The vanadate cofactor in the active site of VHPOs contains "
91 ries of active site models indicate that the vanadate cofactor is most likely anionic with one axial
92 formations were observed for some nucleotide/vanadate combinations.
93 n for specific taxa in columns that received vanadate compared to those that did not.
94 is spectra suggest that the structure of the vanadate complex bound to the enzyme may be very similar
95 his is significantly larger than that of the vanadate complex in free solution (3.62 ppm), suggesting
96                   To test whether the enzyme-vanadate complex is a true transition state analogue bey
97 r modeling indicates that a pentacoordinated vanadate complex may well be able to snugly occupy the e
98                                          The vanadate complex of the hexose phosphate phosphatase BT4
99 ding a previously described hairpin ribozyme-vanadate complex, indicated the scissile bond can adopt
100  to nicked double-stranded DNA captured as a vanadate complex.
101                                      The 1:1 vanadate complexes are considerably better inhibitors of
102     The structures and properties of organic vanadate complexes are reviewed, and the potency of such
103 ken into account, "real" K(i) values for the vanadate complexes could be determined.
104  change of the nonbridging V--O bonds in the vanadate complexes does not correlate with the kinetic p
105                   Detailed analysis of these vanadate compounds reveals the key role of VO4 structura
106 the formation of quaternary complexes around vanadate could be adapted to become a useful method for
107                                   The enzyme-vanadate dissociation constants in these enzymes are muc
108 ould be blocked either with H(2)O(2) or with vanadate, each of which inhibits PTPs.
109 re we show that annealing nanoporous bismuth vanadate electrodes at 350 degrees C under nitrogen flow
110                                 In contrast, vanadate-elicited Fas aggregation and Fas-FADD associati
111                       Inhibition of MKP-1 by vanadate enhanced JNK phosphorylation and attenuated the
112 rther investigate the mechanism of action of vanadate, eNOS was immunoprecipitated and its associatio
113                                      Organic vanadate ester compounds are generally four coordinate o
114 damental chemistry and properties of organic vanadate esters impact their effects as inhibitors for p
115 vanadium compounds, specifically the organic vanadate esters, are reviewed with regard to their chemi
116 e unphosphorylated native enzyme, Ca(2+) and vanadate exert a strong influence over the global struct
117 ytic activity and affinity for tungstate and vanadate for a series of 20 AP variants.
118                                          The vanadate forms covalent linkages between the catalytic t
119                                 Furthermore, vanadate generated reactive oxygen species (ROS) in CGPs
120                         The concentration of vanadate giving half-maximum V-nitrogenase activity when
121 f the 2.2 angstrom resolution structure of a vanadate-hairpin ribozyme complex with structures of pre
122                               n-Type bismuth vanadate has been identified as one of the most promisin
123                                              Vanadate has previously been used as a transition state
124  (dPGM), complexed with the potent inhibitor vanadate, has been determined to a resolution of 1.30 A
125 magnesium pyrophosphate, MgAMPPNP, and MgADP.vanadate have been determined.
126 o the precipitation of either various silver vanadates having Ag/V ratios from 1/2 to 3/1 or the new
127                   Resonances for these known vanadates, however, cannot be used to identify the peaks
128 sults are in accord with a model whereby the vanadate-hydroxamate-enzyme complex is a moderately good
129 ecause of the low formation constants of the vanadate-hydroxamic acid complex.
130                                              Vanadate in the Tdp1-vanadate structure has a trigonal b
131  transition state, the binding properties of vanadate in the Yersinia protein-tyrosine phosphatase (P
132 site is known to stabilize another oxyanion, vanadate, in trigonal bipyramidal geometry, but the exte
133 or the tyrosine phosphatase inhibitor sodium vanadate increased the level of phosphorylation of Tyr(3
134  bovine lung microvascular cells (BLMVEC) to vanadate increased the release of biologically active NO
135 ally, PLB decreased Ca-ATPase sensitivity to vanadate, increasing the IC50 value by 300 nM.
136                   Here, we demonstrated that vanadate induced apoptosis in cultured cerebellar granul
137 triatal PTP by an intrastriatal injection of vanadate induced contralateral rotation in control rats
138                                 In addition, vanadate induced FasL production, Fas (CD95) aggregation
139                          Furthermore, sodium vanadate induced primitive endoderm differentiation, eve
140 the molecular mechanisms of sodium vanadate (vanadate)-induced nitric oxide (NO) production.
141                   Both hydrolysis of ATP and vanadate-induced [alpha-(32)P]-8-azido-ADP trapping (fol
142 Fas-FADD-caspase-8 pathway that accounts for vanadate-induced apoptosis of CGPs.
143 nd caspase-8 inhibitor completely eliminated vanadate-induced apoptosis.
144 may be an important signaling pathway in the vanadate-induced carcinogenesis, and ROS may play an imp
145 uced FasL expression and partially mitigated vanadate-induced cell death.
146 active oxygen species (ROS) were involved in vanadate-induced expression of HIF-1 and VEGF in DU145 c
147 drogen peroxide scavenger, catalase, blocked vanadate-induced FasL expression and partially mitigated
148                                              Vanadate-induced FasL expression was ROS-dependent but J
149 so studied the signaling pathway involved in vanadate-induced HIF-1 alpha and VEGF expression and fou
150 nduced NO production, they failed to inhibit vanadate-induced NO release.
151 tmannin, a PI3-K inhibitor, blocked both the vanadate-induced phosphorylation of eNOS and the increas
152 ) to stimulate ATP hydrolysis and facilitate vanadate-induced trapping of [alpha-(32)P]-8-azido-ADP i
153 , and Y401A/Y1044A mutants, TNP-ATP binding, vanadate-induced trapping of nucleotide, and ATP hydroly
154           In this study, we demonstrate that vanadate induces HIF-1 activity through the expression o
155                             Sodium azide and vanadate inhibited sterol uptake, consistent with the pa
156 zation conditions fixed Na+,K+-ATPase in the vanadate-inhibited E2 conformation, and the crystals had
157 h low affinity and the unaffected IC(50) for vanadate inhibition observed in the C(27,30)A-substitute
158  enzyme kinetic, photoaffinity labeling, and vanadate inhibition studies.
159                       There was no effect of vanadate (inhibitor of dynein) on motility, whereas 5'-a
160 olysis, and the extent to which sodium ortho-vanadate inhibits ATP hydrolysis all vary significantly.
161 t is concluded that H(+) gradient-dependent, vanadate-insensitive glucoside uptake is mediated by an
162                                              Vanadate is a phosphate mimic and causes protein misfold
163                                              Vanadate is a potent modulator of a number of biological
164              Therefore, it is concluded that vanadate is not a true transition state analogue for the
165                                              Vanadate is widely used in industry, and is a potent ind
166            Equilibration between the various vanadates is observed and characterized.
167 ion K(m) = 4.81 microm), and the presence of vanadate leads to enzyme inactivation (IC(50) = 24 micro
168 roup in the transition state highlights that vanadate may not always be an ideal transition state ana
169 coli dPGM structure which, once activated by vanadate, may dephosphorylate the active protein.
170    Thus, JNK signaling plays a major role in vanadate-mediated activation of the Fas-FADD-caspase-8 p
171 S) in CGPs; however, ROS was not involved in vanadate-mediated MAPK activation.
172 ng this phenomenon, we used the procedure of vanadate-mediated trapping of the Pgp transport cycle in
173 nesium, adenosine diphosphate, and inorganic vanadate (Mg.ADP.Vi) and the rough-chemotype lipopolysac
174  an affinity for SERCA2a approaching that of vanadate (micromolar), whereas PLB3 and PLB4 had much hi
175                      Therefore, enzyme-bound vanadate moieties are often considered as transition sta
176  divanadate, but with evidence of additional vanadate moieties at either end, and representing a diff
177 rthermore, the ionization state of the bound vanadate moiety is not invariant across the PTPase varia
178  perchlorate, chlorate, monofluorophosphate, vanadate, molydate, and tungstate.
179  fructose-responsive gene, with tungstate or vanadate nonspecifically inhibited NaPi-2b mRNA expressi
180 ylsiloxy ligands, the transesterification of vanadate occurs via sigma-bond metathesis, and vanadium
181        Eight crystal structures of Tdp1 with vanadate, oligonucleotides, and peptides or peptide anal
182         The effects of protamine sulfate and vanadate on Nephrin phosphorylation and GSIR were studie
183  be modulated by changing CFTR activity with vanadate or adenylyl-imidodiphosphate, or by introducing
184 tant that traps nucleotide in the absence of vanadate or beryllium fluoride, the high to low affinity
185 itors of phosphotyrosine phosphatases (PTPs; vanadate or calpeptin) increases phosphorylation of p80
186 hich does not occur upon exposure to H2O2 or vanadate or if pervanadate is excluded during cell solub
187              In all cases, pretreatment with vanadate or N-ethylmaleimide inhibited the conversion of
188 yoprotectant solution became liganded to the vanadate or tungstate inhibitor molecules in a bidentate
189 hosphotyrosine phosphatase inhibitor, sodium vanadate, or expression of mutationally activated c-Src
190 s and geochemical simulations, no other lead vanadate, or vanadium minerals were detected.
191 n integrated workflow, we find eight ternary vanadate oxide photoanodes in the target band-gap range
192                               The equatorial vanadate oxygen atoms bind to the P-loop, and the apical
193 ive antidiabetic compound such a the organic vanadate peptidic substrate was possible the toxicity pr
194 d it with two classical trigonal-bipyramidal vanadate-phosphatase complexes.
195 in the context of recent characterization of vanadate-phosphatase protein structures by data mining.
196  influx in Col-0 guard cells was impaired by vanadate pre-treatment or PM H(+) -ATPase mutation, sugg
197 ion remained unaffected by vanadate, whereas vanadate promoted recruitment of the 90-kDa heat shock p
198 Vanadium-dependent haloperoxidases contain a vanadate prosthetic group and utilize hydrogen peroxide
199              In contrast, in the mutant, the vanadate protonation is the same at pH 5.0 and 8.3, and
200 rrelated for tungstate (r(2) = 0.89) but not vanadate (r(2) = 0.23), indicating that the tungstate*AP
201                                              Vanadate reacts with catechols at submillimolar concentr
202                    The phosphatase inhibitor vanadate reduced these effects.
203 rties (e.g. growth inhibition, flocculation, vanadate resistance, stress response) that are potential
204                          Consistent with the vanadate-resistant ATPase activity, salt-stable closed c
205 ased and decreased by the addition of sodium vanadate, respectively, but these changes were eliminate
206                     Treatment of BLMVEC with vanadate resulted in phosphorylation of both Akt and end
207 the W354F mutant obtained in the presence of vanadate reveals an unusual divanadate species with a cy
208              Inhibition of phosphatases with vanadate reveals site-specific regulatory mechanisms and
209           However, the phosphatase inhibitor vanadate reversed the inhibitory effect of RA on MAP kin
210  the limited information available on uranyl vanadates, room temperature Ca-U-V precipitation experim
211  reversible depending on the availability of vanadate salts and triclosan, a component of PIA.
212 f the tyrosine phosphatase inhibitor, sodium vanadate, selectively repressed Nanog transcription with
213  with varied classes of oxo compounds (i.e., vanadates, selenate, phosphate, sulfate, acetate, nitrat
214 as characterized as magnesium ion dependent, vanadate sensitive, and slightly stimulated by potassium
215 ueous two-phase partitioning and assayed for vanadate-sensitive ATPase and FCBP activity.
216 re very poor substrates for FAAH; however, a vanadate-sensitive enzymatic activity was detected in br
217 e is mediated by an H(+) antiporter, whereas vanadate-sensitive glutathione conjugate uptake is media
218 ng membrane vesicles in an ATP-dependent and vanadate-sensitive manner; net transfer of cholesterol w
219 s stereoselective; minimal ATP-dependent and vanadate-sensitive transfer of cholesteryl oleate, phosp
220 inding of ATP, does not progress to a normal vanadate-sensitive transition state, but hydrolyzes ATP
221 renamed here G6Pase-beta, is an acid-labile, vanadate-sensitive, endoplasmic reticulum-associated pho
222                 None of these parameters was vanadate-sensitive.
223 lycerol but not serine, stereochemistry, and vanadate sensitivity) are similar to, but distinct from,
224 ruginosa cultures growing in the presence of vanadate showed differential expression of genes involve
225  The enzyme activity was inhibited by sodium vanadate, sodium fluoride, N-ethylmaleimide, and phenylg
226                             After all of the vanadate species present in solution had been taken into
227 tavanadate in the active site from a dimeric vanadate species that previous crystallographic evidence
228 ydrolysis product, 8-azido-ADP, but not as a vanadate stabilized post-hydrolysis transition state com
229                                 We show that vanadate stably traps Pgp under two different conditions
230  imaged by cryo-electron microscopy or after vanadate staining by scanning transmission electron micr
231                         Vanadate in the Tdp1-vanadate structure has a trigonal bipyramidal geometry t
232 olorimetric method based on formation of the vanadate-tartrate complex.
233 e (cyclosporin A) for or indirectly occlude (vanadate) the substrate-binding site prevent formation o
234  the expression of HIF-1 and VEGF induced by vanadate through PI3K/Akt may be an important signaling
235                         Here, the ability of vanadate to accept a variety of different ligands is exp
236                              Upon binding of vanadate to both enzymes, small increases in average met
237 ed in the presence of ATP, ADP, and ATP plus vanadate to identify the residues that are directly affe
238 periments, rigor cross-bridges and Ca2+ with vanadate to inhibit cross-bridge formation produce a sim
239 monas flagella in vivo, rendered immotile by vanadate, to be EI = 840 +/- 280 pNmum(2) and ks = 79.6
240                 Addition of ouabain, but not vanadate, to the purified Na+/K+-ATPase/Src complex free
241   We have also determined the structure of a vanadate transition state mimic for the Cre-loxP reactio
242 hairpin ribozyme, including a complex with a vanadate transition state mimic, suggests an alternative
243 anic phosphate ground-state analogs and with vanadate transition-state analogs.
244 imicked the pro-R, nonbridging oxygen of the vanadate transition-state complex.
245  however, unlike the V-nitrogenase genes the vanadate transport genes were expressed in vegetative ce
246 uggesting that there was also a low-affinity vanadate transport system that functioned in the vupB mu
247                    The genes for an ABC-type vanadate transport system, vupABC, were found in A. vari
248                                High-affinity vanadate transport systems have not heretofore been iden
249 induce regeneration of [125I]IAAP binding to vanadate-trapped (or fluoroaluminate-trapped) Pgp withou
250 (beta,gamma-imino)triphosphate-bound and ADP/vanadate-trapped intermediates were conformationally dis
251 tent with this, limited trypsin digestion of vanadate-trapped Pgp shows protection by cis-(Z)-flupent
252 n of [alpha-(32)P]-8-azido-ADP (or ADP) from vanadate-trapped Pgp, which is essential for subsequent
253 toplasmic gate II remains closed also in the vanadate-trapped state, but it reopens in the ADP-bound
254                                         In a vanadate-trapped transition state intermediate, all free
255                                              Vanadate trapping further decreased the D/A ratio, indic
256 hereas substrate dissociation in response to vanadate trapping is considerably affected in its presen
257                          Under conditions of vanadate trapping, most molecules displayed high FRET ef
258 well as on substrate dissociation coupled to vanadate trapping.
259 se of an 8-azido[alpha-(32)P]ATP-binding and vanadate-trapping assay allowed us to devise conditions
260                    Like bisdioxopiperazines, vanadate traps the enzyme in a salt-stable closed confor
261   We measured the stiffness of 50 muM sodium vanadate treated bull sperm in the presence of 4 mM ADP,
262 of vinculin on tyrosine was reconstituted in vanadate treated COS-7 cells coexpressing c-Src.
263 nce of calcium/calmodulin, cell lysates from vanadate-treated cells exhibited greater NOS activity co
264  phosphorylation of alpha-actinin is seen in vanadate-treated COS-7 cells that are co-transfected wit
265                                              Vanadate treatment of cells revealed that the reduction
266                                              Vanadate treatment reversed the butein-induced down-regu
267                                              Vanadate treatment reversed the GS-induced down-regulati
268 P-2 is translocated to plasma membrane after vanadate treatment.
269 constants (km) for the dissolution of uranyl-vanadate (U-V) minerals predominant at Blue Gap/Tachee w
270 lexes is followed by the slower reduction of vanadate (V (V)) to vanadyl (V (IV)) and oxidation of th
271 process, we simultaneously added acetate and vanadate (V(5+)) to columns that were packed with aquife
272  template exchange between phosphate (P) and vanadate (V) anions enclosed in an {X(2)M(18)} cluster i
273 er oxidation catalyst based on redox-active (vanadate(V)-centered) polyoxometalate ligands, Na10[Co4(
274 estigated the molecular mechanisms of sodium vanadate (vanadate)-induced nitric oxide (NO) production
275 ug substrate-stimulable ATPase activity, and vanadate (Vi) blocks this activity effectively by trappi
276                                       Sodium vanadate (Vi) is a phosphate analog that inhibits force
277 ial Ca(2+) uptake rate was also increased by vanadate (Vi), acetate, ATP, or a non-hydrolyzable ATP a
278 P]-8-azidoADP was trapped in the presence of vanadate (Vi), and the release of trapped [alpha-(32)P]-
279                 In this study we exploit the vanadate (Vi)-induced transition state conformation of P
280 e binding to intermediate levels with sodium vanadate (Vi).
281 rystallized with the phosphate (P(i)) analog vanadate (VO(3-)4 or V(i)).
282        Stoichiometry of [14C]ADP trapping by vanadate was 1 mol/mol P-glycoprotein at full inhibition
283                            Inhibition by ADP-vanadate was slow and depended cooperatively on nucleoti
284 rnative V-dependent nitrogenase, transported vanadate well.
285                        The effects of sodium vanadate were abrogated by Grb2 deficiency or by the add
286 by using V-nitrogenase unless high levels of vanadate were provided, suggesting that there was also a
287 -glycoprotein upon incubation with MgADP and vanadate were studied along with the trapping of [14C]AD
288                                              Vanadates were found to convert ethylating agents into e
289 red for HIF-1 and VEGF expression induced by vanadate, whereas mitogen-activated protein kinase pathw
290  yeast was inhibited to different extents by vanadate, whereas the latter yeast strain was more resis
291 -caveolin interaction remained unaffected by vanadate, whereas vanadate promoted recruitment of the 9
292                     Antimony-alloyed bismuth vanadate, which is identified as a novel light absorber
293                  We show that with bound ADP.vanadate, which mimics the transition state between ATP
294                                              Vanadate, which prevented Nephrin dephosphorylation afte
295                          Addition of ADP and vanadate, which traps the posthydrolysis biochemical sta
296 s that were investigated, the 1:1 complex of vanadate with 4-nitrobenzohydroxamic acid, was 0.48 micr
297 er, the results show that the interaction of vanadate with biological systems is not solely reliant u
298 of formation of the 1:1 and 1:2 complexes of vanadate with catechol itself and with 2,3-dihydroxynaph
299 he presence of MgATP, Mg(2+), Mg-P(i), or Mg-vanadate with complete inhibition of activity.
300  with 4-nitrobenzo[(13)C]hydroxamic acid and vanadate yields a coordination-induced shift (CIS) of 7.

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