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1 nd the activity required Ti(III) citrate and methyl viologen.
2  as 2,6-dichloro-1,4-benzoquinone (DCBQ) and methyl viologen.
3 is facilitated by the general redox mediator methyl viologen.
4  was evidenced from the electron transfer to methyl viologen.
5 d caffeyl-CoA-dependent oxidation of reduced methyl viologen.
6 persensitive to the oxidative stress reagent methyl viologen.
7 stress sensitivity of this E. coli mutant to methyl viologen.
8 achieved by using a surfactant derivative of methyl viologen.
9 xtreme sensitivity to the redox-active agent methyl viologen.
10  reduction of BSO by either NADPH or reduced methyl viologen.
11 ot electron transfer with electron-accepting methyl viologens.
12 sured decay factors for electron transfer to methyl viologen (0.18 angstrom(-1)) and hole transfer to
13 cetonitrile electrolyte were quantified with methyl viologen [1,1'-(CH(3))(2)-4,4'-bipyridinium](PF(6
14  as photocathodes in contact with an aqueous methyl viologen(2+/+) electrolyte, energy-conversion eff
15 en the enzyme was assayed in the presence of methyl viologen (4 mM) and inhibited by 70% when the enz
16 tiated electron transfer to generate reduced methyl viologen, a species that persists in the presence
17 d reductive electron transfer reactions with methyl viologen and 10-methylphenothiazine occur with ne
18 ferent redox behavior was also observed when methyl viologen and benzyl viologen were used as reducta
19 nd Km values of 29 and 15 microM for reduced methyl viologen and biotin sulfoxide reductase, respecti
20  affinity for the heteroternary complex with methyl viologen and CB[8] (MVCB[8]) within a vast pool o
21 uced Fe(II) cores (Fe(II)-HoSF), prepared by methyl viologen and CO, also reduces M-HoSF and M-AvBF s
22 t all mutants were completely devoid of both methyl viologen and formate-linked thiosulfate reductase
23 ronmental stresses, including drought, salt, methyl viologen and H2O2 induced oxidative stress.
24  type, fib4 KD apples were more sensitive to methyl viologen and had higher superoxide levels during
25 ive protein after redox cycling with reduced methyl viologen and Me2SO.
26 e fraction of chloroplasts were increased by methyl viologen and ozone, but not by high-light treatme
27 lementation line C1 rescued the tolerance to methyl viologen and salinity and recovered the growth an
28 anced sensitivity to superoxide generated by methyl viologen and tellurite.
29 ing the photo-reduction of a redox mediator (methyl viologen) and light driven H2 generation.
30 ayed a soxS-dependent induction by paraquat (methyl viologen), and the fldB gene is preceded by two o
31               Ru(NH3)6(3+/2+), IrCl6(2-/3-), methyl viologen, and chlorpromazine all involve electron
32 e kinetic properties of the (de)insertion of methyl viologen are excellent with 60% of capacity retai
33 Upon partial reduction with dithionite using methyl viologen as a mediator, a signal at g(ave) = 1.9
34 , in a proof-of-principle investigation with methyl viologen as electron acceptor, the population of
35 alyzed the reduction of NADP(+) with reduced methyl viologen as electron donor at a rate of 385 U/mg.
36 uction with Ti(III)-citrate as reductant and methyl viologen as mediator were similar to those obtain
37 2) evolved/mg at 80 degrees C) using reduced methyl viologen as the electron donor.
38  BSOR activity using either NADPH or reduced methyl viologen as the electron donor.
39 to the superoxide-generating agent paraquat (methyl viologen) as the inducer.
40 urthermore, a newly designed high-throughput methyl viologen-based photometric microtiter plate assay
41 e binding constants K(G2) of cucurbit[8]uril-methyl viologen-based ternary complexes (CB8-MV(2+)-G2)
42 e herbicides fosmidomycin, phosphonothrixin, methyl viologen, benzyl viologen, clomazone, 2-(dimethyl
43 ngsten-grown cells yielded decreased reduced methyl viologen:BSO reductase, NADPH:BSO reductase, and
44 rosative stress and the superoxide generator methyl viologen but remarkably resistant to hydrogen per
45 itive to an oxidative stress-inducing agent, methyl viologen, but the sarA sodA double mutant was mor
46 de or the reactive oxidative species inducer methyl viologen can induce macroautophagy in Arabidopsis
47 aracterization reveals that the insertion of methyl viologen causes phase transformation of the organ
48 mical characterization of these Hg tips with methyl viologen, cobalt sepulchrate trichloride, and hex
49  SDS-PAGE for covalently bound haem, but the methyl-viologen-dependent nitrite reductase activities a
50                                         With methyl viologen dication (MV(2+)) added as a trap, Acr-(
51                      Subsequent reduction of methyl viologen dication (MV(2+)), a substrate surrogate
52  uniquely different binding pocket wherein a methyl viologen dication is stabilized by interacting wi
53 (CN)6(3-/4-), Ru(NH3)6(3+/2+), IrCl6(2-/3-), methyl viologen, dopamine, ascorbic acid, Fe(3+/2+), and
54           Various compounds of ferrocene and methyl viologen have been examined as promising redox ac
55                                              Methyl viologen hexafluorophosphate (MV(2+).2PF6(-)) and
56 henol plus ascorbate as an electron donor to methyl viologen, however, was the same as observed in th
57 ent pi-radicals such as MV(+*) (MV refers to methyl viologen, i.e., N,N'-dimethyl-4,4'-bipyridinum) e
58                 F(A)- could be reoxidized by methyl viologen in F(B)-less PS I complexes, although at
59  from the artificial electron donor DCPIP to methyl viologen in thylakoid membranes.
60              The sodB- was very sensitive to methyl viologen, indicating a specific role for the FeSO
61 ble insertion of a large molecular dication, methyl viologen, into the crystal structure of an aromat
62                                              Methyl viologen is in turn a weaker pi-acceptor than ant
63 d with the WT, gr3 was sensitive to salt and methyl viologen; it showed inhibited growth, decreased m
64  hydA genes resulted in a loss of detectable methyl viologen-linked hydrogenase activity.
65 ond hydrogenase gene cluster, hyd, exhibited methyl viologen-linked hydrogenase enzymatic activity, b
66 e to transcribe nar and subsequently express methyl viologen-linked nitrate reductase activity under
67 nsfer from a plasmonic substrate to adsorbed methyl viologen molecules.
68 und to catalyze the reduction of NO(2)(-) by methyl viologen monocation radical (MV(red)), displaying
69                Two BIPY(*+) radical cations, methyl viologen (MV(*+)) and a dibutynyl derivative (V(*
70 ronously realize the regeneration of reduced methyl viologen (MV(*+)) and NADH for the nitrogenase an
71 ers in the photoelectrochemical reduction of methyl viologen (MV(+2)).
72 of a 1:1 inclusion complex between the guest methyl viologen (MV(2+)) and the host cucurbit[7]uril (C
73 ometric reduction of nitrate to nitrite used methyl viologen (MV(2+)) as the electron transfer mediat
74                         Aqueous solutions of methyl viologen (MV(2+)) exhibit anomalous fluorescence
75 finement of electron mediators (for example, methyl viologen (MV(2+))) within the hybrids enables the
76 a reversible electron acceptor and mediator, methyl viologen (MV(2+)), accelerates the extraction of
77 irradiation with 505 nm, 3 is able to reduce methyl viologen (MV(2+)), an electron acceptor commonly
78 he C-Dots, we followed the photoreduction of methyl viologen (MV(2+)), which acts as a molecular redo
79 or the reaction of charged nanocrystals with methyl viologen (MV(2+)).
80 ivative, (DNP-BS(-)), and positively charged methyl viologen (MV(2+)).
81 der oxidative stress conditions generated by methyl viologen (MV) added during the early exponential
82 n to form 1:1:1 heteroternary complexes with methyl viologen (MV) and a second aromatic guest.
83  oxidative stress generated by the herbicide methyl viologen (MV) and exhibited transcriptional hyper
84                             When paired with methyl viologen (MV) as an anolyte, resulting FcNCl/MV a
85               Addition of the redox mediator methyl viologen (MV) increased TOF(H2ase) to 880 +/- 154
86                                      Ions of methyl viologen (MV) were found to adsorb to the electro
87 butyrate) (PHB) synthesis, or treatment with methyl viologen (MV), effectively increases glycogen acc
88 es was measured by three electron acceptors, methyl viologen (MV), potassium ferricyanide, or dichlor
89 lasts resulted in an increased resistance to methyl viologen (MV)-induced oxidative stress, documente
90 re essential for superoxide stress response, methyl viologen (MV)-sensitive mutants of S. mutans were
91 03 can adapt rapidly to the potent herbicide methyl viologen (MV).
92 e three-dimensional counterpart of benchmark methyl viologen (MV).
93                                We discover a methyl viologen (MV)/bromide electrolyte that delivers a
94 n by a photosystem I (duraquinol [DQH(2)] to methyl viologen [MV]) proton pumping partial reaction wa
95 odic reduction of the other electrocatalyst (methyl viologen, [MV](2+)) generates a negative fuel tri
96 s (ruthenium bipyridine [Ru-(bipy)3(2+)] and methyl viologen [MV2+]) was quantified in a U-tube perme
97                                     By using methyl viologen (N,N'-dimethyl-4,4'-bipyridinium) to shu
98                        The protein possessed methyl viologen:NADP(+) oxidoreductase activity and cata
99 y was observed on recombinant CbR module and methyl viologen nitrate reduction by holo-NaR, suggestin
100 ties NADH:cytochrome c reductase and reduced methyl viologen:NR, closely paralleled the appearance an
101 ron-sulfur component oxidized CO and reduced methyl viologen or a ferredoxin isolated from M. thermop
102      Furthermore, the effects of exposure to methyl viologen or H2O2 on intracellular NADH and NAD(+)
103 lectron transport activity when treated with methyl viologen or norflurazon (NF).
104  in dark reactions, such as the reduction of methyl viologen or oxygen.
105 n sulfoxide reductase activity using reduced methyl viologen or reduced benzyl viologen as artificial
106 re selectively sensitive to peroxide but not methyl viologen or Rose Bengal, and GPXs, APX, and MSRA2
107 m neutral TCNQ, I(2), and fullerene to ionic methyl viologen, organometallic like nickelcarborane, et
108 sed to different oxidative stress conditions-methyl viologen, ozone, and high light-differences were
109 the antioxidant depletion in the presence of methyl viologen (paraquat), a known agent of oxidative s
110 ethal levels of the ROS-generating herbicide methyl viologen (paraquat), suggesting a common protecti
111                    Examples include enhanced methyl viologen (Paraquat)-induced oxidative stress tole
112 the redox-active superoxide-generating agent methyl viologen (paraquat).
113  1,1'-Dimethyl-4,4'-bipyridinium dichloride (methyl viologen; paraquat), an herbicide that causes dep
114 s bisradical dicationic redox state with the methyl viologen radical cation (MV(*+)) to give a 1:1 in
115 we report the efficient encapsulation of two methyl viologen radical cations (MV(.+) ) in a size-matc
116 t transitions, high light, and the herbicide methyl viologen, rapidly activated GCN2 kinase, whereas
117 the photocatalytic activity toward proton or methyl viologen reduction.
118 valuated using both aqueous (Fe(CN)(6)3-/4-, methyl viologen, Ru(NH3)(6)3+/2+, and IrCl(6)2-/3-) and
119 ccurs in the sarA background, can rescue the methyl viologen-sensitive phenotype observed in the abse
120  the enzyme-dependent reoxidation of reduced methyl viologen spectrophotometrically at 600 nm.
121          We show that AMC260 and AMC364 lack methyl viologen-supported nitrate reductase activity.
122 uests simultaneously and, in the presence of methyl viologen, to recognize N-terminal tryptophan over
123 on, with phosphatidylethanolamine increasing methyl viologen transport.
124 G18a transgenic plants are more sensitive to methyl viologen treatment than wild-type plants and accu
125 ogen and had higher superoxide levels during methyl viologen treatment.
126 n (MOP) 3 which bears 24 covalently attached methyl viologen units on its external surface, as eviden
127                                              Methyl viologen was allowed to absorb into the Nafion la
128 of Q8 to aromatic peptides in the absence of methyl viologen was studied by isothermal titration calo
129 g time as well as its resistance to H2O2 and methyl viologen were indistinguishable from those of the
130  with Mito-Bodipy-TOH in cells stressed with methyl viologen, whereas no enhancement was observed in
131 trary to 4,4'-dipyridinium (i.e., archetypal methyl viologen), which is reduced by two single-electro
132 of the artificial electron transfer mediator methyl viologen, whose redox potential lies negative of

 
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