ライフサイエンスコーパス: oxidation reaction

1 ns catalyzed by more specific enzymes (e.g., oxidation reactions).

2 was insufficient to activate the thermal CH4 oxidation reaction.

3 improved electrocatalysis toward the ethanol oxidation reaction.

4 p, which is an intermediate in the PEC water-oxidation reaction.

5 idual nanoelectrodes catalyzing the hydrogen-oxidation reaction.

6 ticle level during electrocatalytic hydrogen-oxidation reaction.

7 pha-oxo MIA was likely formed via a two-step oxidation reaction.

8 e in-situ obtained by finely controlling the oxidation reaction.

9 ces with variable step density during the CO oxidation reaction.

10 n intriguing type of catalysts for the water oxidation reaction.

11 ty and durability towards efficient methanol oxidation reaction.

12 ancement of catalytic activity for the water oxidation reaction.

13 e dosed simultaneously, i.e., running the CO oxidation reaction.

14 ffective peroxidase mimic to catalyze the co-oxidation reaction.

15 wed for preequilibration before starting the oxidation reaction.

16 overlayers that are catalytic for the water-oxidation reaction.

17 reaction, and alcohol (methanol or ethanol) oxidation reaction.

18 ble metals was demonstrated towards hydrogen oxidation reaction.

19 , consistent with a one-proton, one-electron oxidation reaction.

20 lications for other Pd-catalyzed aerobic C-H oxidation reactions.

21 a promising route for enhancing the rates of oxidation reactions.

22 t has not been previously observed in olefin oxidation reactions.

23 key intermediates in various cobalt-mediated oxidation reactions.

24 nts in many enzymatic and synthetic C-H bond oxidation reactions.

25 from petroleum feedstock require a series of oxidation reactions.

26 expansion of the scope of accessible aerobic oxidation reactions.

27 s, which is capable of catalyzing subsequent oxidation reactions.

28 dine reagents for a broad array of substrate oxidation reactions.

29 capable of effecting hydride abstraction and oxidation reactions.

30 uired to permit chemoselective reduction and oxidation reactions.

31 rophotometry and the heat flux dissipated by oxidation reactions.

32 n similar time scales as analogous gas-phase oxidation reactions.

33 ater is the only by-product in H2O2 involved oxidation reactions.

34 is a general photoredox catalyst for diverse oxidation reactions.

35 ormance for the oxygen reduction and alcohol oxidation reactions.

36 tro-oxidation of CO2 and a poison in partial oxidation reactions.

37 redox-active organic cocatalysts in aerobic oxidation reactions.

38 is exposed to free chlorine in water due to oxidation reactions.

39 the importance of furan fatty acids in lipid oxidation reactions.

40 e utility of DAF as a ligand in Pd-catalyzed oxidation reactions.

41 degrees C and shown to be active in various oxidation reactions.

42 d as co-catalytic redox mediators in aerobic oxidation reactions.

43 e, Fe(II)- and alpha-ketoglutarate-dependent oxidation reactions.

44 ocesses in which microbes catalyse reduction-oxidation reactions.

45 on without promoting potentially deleterious oxidation reactions.

46 PR) to transfer electrons when they catalyze oxidation reactions.

47 ated in both catalytic oxygenation and water oxidation reactions.

48 onger than 15 days, due to isomerisation and oxidation reactions.

49 e detected for the first time as a result of oxidation reactions.

50 efficient catalytic systems for challenging oxidation reactions.

51 trol of automobile emissions, and industrial oxidation reactions.

52 e, Fe(II)- and alpha-ketoglutarate-dependent oxidation reactions.

53 esign of catalysts with greater activity for oxidation reactions.

54 ovel catalytic systems for these challenging oxidation reactions.

55 prior to the emergence of dechlorination and oxidation reactions.

56 dation for understanding Cu(II)-mediated C-H oxidation reactions.

57 Pd(0) commonly employed in Pd(II)-catalyzed oxidation reactions.

58 oposed to be responsible for catalytic water oxidation reactions.

59 including C-C bond formation, reduction, and oxidation reactions.

60 and a key step in the development of aerobic oxidation reactions.

61 rforming demanding and physiologically vital oxidation reactions.

62 elevant oxoiron(IV) intermediate in chemical oxidation reactions.

63 ation with and without accounting for indoor oxidation reactions.

64 t widely studied palladium(II)-catalyzed C-H oxidation reactions.

65 ater emulsion and was found to inhibit lipid oxidation reactions.

66 x) to promote H(2) O(2) -dependent enzymatic oxidation reactions.

67 evelopment of improved catalysts for allylic oxidation reactions.

68 steps of the catalytic cycle of this unusual oxidation reaction, a series of mechanistic experiments

69 7)Ni(3)/C, which exhibits excellent hydrogen oxidation reaction activity in both rotating disk electr

70 surface Ni oxides lead to the high hydrogen oxidation reaction activity of Ru(7)Ni(3)/C.

71 This oxidation reaction affords the corresponding trichlorost

72 ies in two prototypical Pd-catalyzed aerobic oxidation reactions: allylic C-H acetoxylation of termin

73 In addition to fatty acid oxidation reactions, an oxidation of endogenous N-arachi

74 forms of Hg-thiols are produced by the Hg(0) oxidation reaction and that the local coordination envir

75 Elucidating the dynamics of this oxidation reaction and the lifetime of hmC in DNA is fun

76 hod was shown to provide fast photocatalytic oxidation reactions and analysis with throughput of abou

77 e flow rate or flow interruption facilitated oxidation reactions and generated redox byproducts (Mn(I

78 unctional enzyme that catalyzes a cascade of oxidation reactions and is the major linalool metabolizi

79 rophotometry and the heat flux dissipated by oxidation reactions and measured directly in water-in-oi

80 hey can effectively inhibit or slow negative oxidation reactions and scavenge free radicals and react

81 bility to perform some of the most difficult oxidation reactions and study the mechanisms of such tra

82 ed with the ability of flavonoids to prevent oxidation reactions and the presence of vicinal hydroxyl

83 We compared oxidation reactions and the turnover of oxidation interm

84 ental and practical significance to Mn-based oxidation reactions and wastewater treatment processes.

85 used to support palladium-catalyzed aerobic oxidation reactions and, where possible, describes mecha

86 Mechanisms were proposed for the oxidation reactions, and observed stereo- and regio-chem

87 er salts find widespread use in Pd-catalyzed oxidation reactions, and they are typically used as oxid

88 oxygen reduction reaction (ORR) and alcohol oxidation reaction (AOR), respectively.

89 tion, NRR, for ammonia synthesis and ammonia oxidation reaction, AOR, for energy utilization) is prov

90 ther advantages of this new C-C coupling and oxidation reaction are its operational simplicity and th

91 ve and durable electrocatalysts for methanol oxidation reaction are of critical importance to the com

92 cts as tools to implement selectivity in C-H oxidation reactions are briefly discussed.

93 ons avoid the (001) surface, indicating that oxidation reactions are favoured on this surface.

94 Such oxidation reactions are limited by steric saturation at

95 bon dioxide reduction reactions with organic oxidation reactions are promising techniques for produci

96 Oxidation reactions are rarely encountered in frustrated

97 These oxidation reactions are relevant to green chemistry in t

98 n order to facilitate an otherwise difficult oxidation reaction, as well as biomineralization.

99 ndergoes both electrophilic and nucleophilic oxidation reactions, as well as O2-transfer between meta

100 (vs Ag/AgCl) and a reversible reduction and oxidation reaction at -0.235 and -0.227 V, respectively.

101 During charging, the oxidation reaction at significantly reduced charge poten

102 The initial step of photocatalytic water oxidation reaction at the metal oxide/aqueous interface

103 kinetics and thermodynamics of photoinduced oxidation reactions at aqueous interfaces and analyze a

104 severely deficient in catalyzing the normal oxidation reaction, but that D2HG production efficiency

105 amin B2, is essential for cellular reduction-oxidation reactions, but is not readily synthesized by m

106 effective ligand in a number of Pd-catalyzed oxidation reactions, but the mechanistic basis for its u

107 cocatalysts in Cu-catalyzed aerobic alcohol oxidation reactions, but the nature of the cooperativity

108 Monitoring the [Ir(Cp*)(phpy)(NCAr(F))](+) oxidation reaction by low-temperature NMR techniques rev

109 dying titanium dioxide (TiO2) photocatalytic oxidation reactions by performing reactions on a TiO2-co

110 n pH and concentration of the substrate, the oxidation reaction can be directed toward selective prod

111 uction reaction with the value-added organic oxidation reaction can secure significant economic feasi

112 role in governing these interactions, as the oxidation reactions carried out by the first community m

113 cal coenzyme for enzymes that fuel reduction-oxidation reactions, carrying electrons from one reactio

114 l cell is hindered by the lack of a hydrogen oxidation reaction catalyst at the anode.

115 high-performance and low-cost anode hydrogen oxidation reaction catalysts.

116 convert them into red ketocarotenoids via an oxidation reaction catalyzed by a previously unknown ket

117 chloride followed by a 5-exo-dig cyclization/oxidation reaction catalyzed by copper(II) chloride.

118 compound is a key intermediate of the water oxidation reaction catalyzed by the peroxido-bridged com

119 luminates a multinuclear pathway for aerobic oxidation reactions catalyzed by Pd complexes.

120 ated temperature (40 degrees C) enhanced the oxidation reactions causing higher viscosity drop.

121 Can classical and modern chemical C-H oxidation reactions complement biotransformation in the

122 al carbon dioxide reduction reaction-organic oxidation reaction coproduction via conceptual process d

123 very well and therefore the progress of the oxidation reaction could be predicted.

124 alladium(II)-catalyzed carbon-hydrogen (C-H) oxidation reactions could streamline the synthesis of ph

125 e resulting proton chemical potential to the oxidation reaction driving these PCET processes have not

126 iques showed BHT to be efficient in limiting oxidation reactions during digestion, almost inhibiting

127 n bifurcation mechanism for the two-electron oxidation reaction, during which one electron ends up on

128 mechanism to directly couple a conventional oxidation reaction, e.g., the oxidation of ferrocene, to

129 lights relevant applications of chemical C-H oxidation reactions, electrochemistry and microfluidic t

130 oundation for broader development of aerobic oxidation reactions employing quinone-based catalysts.

131 strategy features an enantioselective alpha-oxidation reaction enabled by a chiral amine in conjunct

132 tion involves decarboxylation followed by an oxidation reaction enabled just by using DMSO as the sol

133 nary Au@PtIr core-shell catalyst for ethanol oxidation reaction (EOR) in alkaline solutions, which ex

134 much enhanced stability for ORR and ethanol-oxidation reaction (EOR) than those of disordered PdCuM

135 are active electrocatalysts for the ethanol oxidation reaction (EOR), but inactive for splitting the

136 ercial Pt/C catalysts applied to the ethanol oxidation reaction (EOR).

137 ethanol oxidation reaction (MOR) and ethanol oxidation reaction (EOR).

138 olution, oxygen evolution, CO2 reduction, CO oxidation reactions, etc.

139 ggest that when demand for NAD(+) to support oxidation reactions exceeds the rate of ATP turnover in

140 Palladium(II)-catalyzed oxidation reactions exhibit broad utility in organic syn

141 hat the aliphatic secondary alcohols undergo oxidation reaction faster than benzylic secondary alcoho

142 We report a novel, efficient oxidation reaction for As(III) conversion to As(V) using

143 yzed radical methylation/sp(3) C-H amination/oxidation reaction for the facile synthesis of quinazoli

144 ulfoxide/Bronsted acid catalyzed allylic C-H oxidation reaction for the synthesis of oxazolidinones f

145 suggesting new opportunities in light-driven oxidation reactions for energy conversion and photocatal

146 ydrogenase (HDH, EC 1.1.1.23), catalyses two oxidation reactions: from L-histidinol (HOL) to L-histid

147 However, the sluggish water oxidation reaction has been hardly reported to be effici

148 ansition metal oxides in catalyzing advanced oxidation reactions has been widely investigated, very f

149 Unusual oxidation reactions have also been discovered, commonly

150 A range of oxoammonium salt-based oxidation reactions have been explored computationally u

151 Palladium-catalyzed aerobic oxidation reactions have been the focus of industrial ap

152 The slow kinetics of hydrogen evolution and oxidation reaction (HER/HOR) in alkaline media limits ma

153 ell nanocatalysts for hydrogen evolution and oxidation reactions (HER-HOR) using hanging strips of ga

154 l significance of the hydrogen evolution and oxidation reactions (HER/HOR), their kinetics in base re

155 well as unambiguous evidence of a reduction-oxidation reaction history between Al-Cu-Fe alloys and s

156 The hydrogen oxidation reaction (HOR) and the hydrogen evolution reac

157 Pt/CuNWs are studied as a hydrogen oxidation reaction (HOR) catalyst in base along with Cu

158 The sluggish hydrogen oxidation reaction (HOR) under alkaline conditions has h

159 hydrogen evolution reaction (HER), hydrogen oxidation reaction (HOR), oxygen evolution reaction (OER

160 action with the Pt-electrocatalyzed hydrogen-oxidation reaction (HOR), we combine single-molecule flu

161 mposite electrode is active for the hydrogen oxidation reaction (HOR).

162 causes for higher overpotential in hydrogen oxidation reaction, (ii) mechanistic aspects of oxygen r

163 both oxygen reduction reaction and methanol oxidation reaction in 0.1 M HClO4 solution.

164 odium bicarbonate, and the sodium persulfate oxidation reaction in acidic media is employed to achiev

165 ibited superior activity toward the hydrogen oxidation reaction in alkaline electrolytes.

166 odel, coupling O2 transfer and ascorbic acid oxidation reaction in the bottled juice, confirmed that

167 re of a Cu(111) model catalyst during the CO oxidation reaction in the CO+O2 pressure range of 10-300

168 However, due to oxidation reaction in vivo, no significant difference be

169 re soluble in organic solvents which enables oxidation reactions in one phase.

170 SCE), which allows to drive demanding photo-oxidation reactions in photoelectrochemical cells (PECs)

171 nd stability for both hydrogen evolution and oxidation reactions in strong acidic media using earth-a

172 electrocatalysts for hydrogen evolution and oxidation reactions in strong acids represents a great c

173 YP71AV1) enzyme, responsible for a series of oxidation reactions in the artemisinin biosynthetic path

174 ic drug that undergoes similar H2 O2 induced oxidation reactions in the blood as other Cr supplements

175 echanistic understanding of flavin-catalyzed oxidation reactions, in either the absence or presence o

176 tion metal complexes can be used to catalyze oxidation reactions, in some cases with high turnover nu

177 Oxidation reactions include molecular oxygen under solve

178 Stereoselective oxidation reactions, including dihydroxylation, aminohyd

179 satile oxidants that perform a wide range of oxidation reactions, including the functionalization of

180 al mechanisms, including disrupted reduction-oxidation reactions, inflammatory responses, metabolic d

181 n this Review on the description of the main oxidation reactions initiated by (1)O(2) and the resulti

182 We then followed the oxidation reactions initiated by this process with the f

183 veloped with Oxone (2KHSO5.KHSO4.K2SO4); the oxidation reaction involves the stirring of methoxy/hydr

184 A diffusion-controlled oxidation reaction involving equal numbers of protons an

185 e of p-OR-DTBP substrates via a two-electron oxidation reaction involving hydrolysis steps which libe

186 Predicting site selectivity in C-H bond oxidation reactions involving heteroatom transfer is cha

187 benchmark our reactor using an aqueous-phase oxidation reaction: iron-catalyzed hydroxyl radical prod

188 This single step of the water oxidation reaction is assigned to the first hole transfe

189 lective catalytic system for aerobic alcohol oxidation reaction is built in PCN-700 through linker in

190 gen-reduction reaction (ORR) and liquid fuel oxidation reaction is very important for the commerciali

191 However, the impact of such oxidation reactions is affected by the reactions of Crie

192 te ligands in electrophilic and nucleophilic oxidation reactions is reported, and can be correlated t

193 resistant nanocatalysts for high-temperature oxidation reactions is ubiquitous in many industrial cat

194 While 1 is a sluggish oxidant in oxidation reactions, it becomes a competent oxidant in o

195 arge carrier density and accelerated surface oxidation reaction kinetics become the key points for im

196 face region but also accelerated the surface oxidation reaction kinetics, synergistically contributin

197 ecies can provide a lower energy barrier for oxidation reactions, leading to the conclusion that this

198 y of these compounds undergo metal-catalysed oxidation reactions, leading to the generation of hydrog

199 The hydrogen oxidation reaction mass activity and specific activity o

200 hiol groups on RyR2, further indicating that oxidation reactions may be involved in the actions of th

201 mechanistic details of the deprotonation and oxidation reactions mediated by CaMn(3) O(4) (+) as well

202 is a key step in selective catalytic aerobic oxidation reactions mediated by transition metals.

203 ectrocatalytic performance for both methanol oxidation reaction (MOR) and ethanol oxidation reaction

204 catalytic activity of Pd toward the methanol oxidation reaction (MOR) and the visible-light plasmonic

205 Catalysts for methanol oxidation reaction (MOR) are at the heart of key green-e

206 cidic and basic solution toward the methanol oxidation reaction (MOR) compared to larger PtZn iNPs sy

207 roscopy (ATR-SEIRAS) studies of the methanol oxidation reaction (MOR) on Ru/Pt thin film and commerci

208 During the methane partial oxidation reaction, NO and NO(2) were not reduced to N(2

209 Herein, an electrochemical nitrogen oxidation reaction (NOR) approach is developed to produc

210 used as indicators of the dominant reduction-oxidation reactions occurring underground.

211 e introduced on paper and then catalyzed the oxidation reaction of 3,3',5,5'-tetramethylbenzidine (TM

212 cs and decrease in the overpotential for the oxidation reaction of A and G.

213 was a one-pot cascade oxidation-cyclization-oxidation reaction of a Boc-protected amino alcohol, pre

214 c setup, it is finally demonstrated that the oxidation reaction of a nonfluorescent species at the wo

215 cs and decrease in the overpotential for the oxidation reaction of adenine.

216 cationic bisguanidinium-catalyzed asymmetric oxidation reaction of alkenes with potassium permanganat

217 The second one-electron oxidation reaction of ascorbic acid leading to the disap

218 her highlighted by the subsequent sequential oxidation reaction of cyclized 7-iodo-12-phenylindeno[2,

219 behaviour of slag-metal-inclusion in the re-oxidation reaction of liquid steel.

220 n/streptavidin to the poly(A) tails, and the oxidation reaction of tetramethylbenzidine (TMB) on the

221 vitation techniques to study the "wall-less" oxidation reactions of 18:1 cardiolipin and 1-palmitoyl-

222 sis provides a fast and easy method to study oxidation reactions of biomolecules, such as peptides.

223 Electrochemical studies of the reduction and oxidation reactions of five different organic nitroxyls

224 cations (e.g. oxygen reduction reaction, and oxidation reactions of formic acid, methanol and carbon

225 This study investigated the lipid oxidation reactions of furan fatty acids, long-chain ome

226 e low intrinsic reactivity of N2O, selective oxidation reactions of highly reactive compounds are pos

227 nd radical pathway latent in metal-catalyzed oxidation reactions of methane at low temperatures.

228 ional photosystem capable of single-electron oxidation reactions of Mn.

229 ution are used simultaneously to investigate oxidation reactions of organic substrates by nonheme iro

230 ciency and regioselectivity in catalytic C-H oxidation reactions of these structurally rich complexes

231 ind this antagonism was investigated through oxidation reactions of Trolox via mass spectrometry anal

232 e metal catalysts for the hydrogen evolution/oxidation reaction on contact with adventitious O(2) are

233 Here we investigate the water-oxidation reaction on haematite using infrared spectrosc

234 pared a range of essential parameters for an oxidation reaction on platinum nanoparticles (NPs) confi

235 s are used to probe the carbon monoxide (CO) oxidation reaction on ruthenium (Ru) initiated by an opt

236 We study the effects of the CO oxidation reaction on the size distributions and atomic

237 h2P)C6H4)2SbCl)AuCl (1-Cl) undergoes a clean oxidation reaction on treatment with PhICl2.

238 od type pathways that have been proposed for oxidation reactions on single supported atom.

239 in the catalytic cycle during CO and alcohol oxidation reactions performed in the liquid phase.

240 tly enhance the kinetics of radical-mediated oxidation reactions-pollutant degradation in particular.

241 inant, more stable intermediate of the water oxidation reaction, possibly a surface bound oxo, may re

242 The electrochemical oxidation reactions proceed under mildly basic condition

243 Moreover, this oxidation reaction proceeds at room temperature without

244 The allylic C-H oxidation reaction proceeds with the broadest scope and

245 Computational analysis of the oxidation reaction proposes two plausible flattened tetr

246 ion in the presence of free chlorine and the oxidation reaction rates increase with free chlorine con

247 vel of reduced glutathione to keep reduction-oxidation reaction (redox) homeostasis under stress cond

248 al for a detailed understanding of reduction-oxidation reaction (redox) signaling.

249 An increasing number of biocatalytic oxidation reactions rely on H(2) O(2) as a clean oxidant

250 to initiate the O-O bond formation in water oxidation reactions remained undetected, presumably due

251 Palladium(II)-catalyzed oxidation reactions represent an important class of meth

252 anol to dimethyl ether and the total methane oxidation reactions, respectively.

253 lecular oxygen to the system and modeled the oxidation reaction resulting in the mature protein-bound

254 ies for these electrochemical imine-to-azine oxidation reactions reveals low overpotentials (eta) for

255 Site-selective aliphatic C(sp(3))-H bond oxidation reactions serve as the cornerstone of this wor

256 of important chemical and enzymatic aerobic oxidation reactions, such as alcohol oxidation mediated

257 On the other hand some important oxidation reactions, such as the aerobic oxidation of al

258 f resazurin has enabled the study of analyte oxidation reactions, such as the oxidation of dopamine a

259 lenging chemical reactions involve selective oxidation reactions, such as the selective oxidation of

260 Characterization of the photo-oxidation reaction suggests H2O2 or *OH production with

261 tives to TEMPO-based catalysts for selective oxidation reactions (TEMPO = 2,2,6,6-tetramethyl-1-piper

262 A mechanism is proposed for the NO. oxidation reaction that involves formation of both Fe(II

263 min A retention was related to the extent of oxidation reactions that occurred in flours during stora

264 ed here, included besides its classical NADH oxidation reaction the generation of cytosolic pyruvate.

265 However, for many triterpenoid oxidation reactions, the corresponding enzyme remains un

266 Nature often utilizes molecular oxygen for oxidation reactions through monoxygenases and dioxygenas

267 2-oxoglutarate) as a co-substrate in so many oxidation reactions throughout much of nature is notable

268 and CeO2 were synthesized and utilized in CO oxidation reactions to compare the catalytic activities

269 few representative examples of photoinduced oxidation reactions to focus on in this Perspective.

270 ment, followed by a subsequent hydroboration oxidation reaction, to afford substituted amino alcohol

271 The success of the current permanganate oxidation reaction together with mechanistic insights sh

272 esults indicated that EVs markedly inhibited oxidation reaction, total volatile base nitrogen (TVBN),

273 K) temperature, which is relevant for the CO oxidation reaction under cold-start conditions in the ca

274 ngle gold nanocrystals during a catalytic CO oxidation reaction under operando conditions with cohere

275 erential accumulation of 5fC in the in vitro oxidation reactions under both neutral and acidic condit

276 nd catalytic activity standards for complete oxidation reactions under harsh conditions.

277 C-H bond oxidation reactions underscore the existing paradigm whe

278 uffer from the sluggish kinetics of the urea oxidation reaction (UOR) owing to a 6 e(-) transfer proc

279 have been developed to catalyze hydrocarbon oxidation reactions using H2O2 in the presence of added

280 e dramatically suppressed in methane partial oxidation reactions using iron oxide nanoparticles embed

281 A possible mechanism of the oxidation reaction was proposed and the reaction product

282 preferentially oxidized amino acid, but the oxidation reaction was significantly inhibited by its ph

283 -yl) nonanoic acid (9M5) at 50-250 uM on the oxidation reactions was evaluated.

284 Protein-lipid oxidation reactions were monitored in semen stains over

285 ffective extraction of phosphorus through an oxidation reaction, which promotes the outward diffusion

286 review is devoted to dealing with selective oxidation reactions, which are important from the viewpo

287 n this Perspective, we focus on photoinduced oxidation reactions, which have attracted enormous inter

288 cially unsaturated fatty acids, are prone to oxidation reactions, which lead to the formation of off-

289 t the unsaturated fatty acids easily undergo oxidation reactions, which lead to the reduction of shel

290 nt Ir(1)/CN electrocatalyses the formic acid oxidation reaction with a mass activity of 12.9 [Formula

291 propagators to trigger the onset of the auto-oxidation reaction with an apparent turnover frequency o

292 oxidized to isoquinolinediones by a tunable oxidation reaction with N-haloimides.

293 s acted as oxidase substrates and induced co-oxidation reactions with anthocyanins.

294 The nature of the oxidizing species in water oxidation reactions with chemical oxidants catalyzed by

295 he former catalyst was used in batch aerobic oxidation reactions with different primary alcohols and

296 ervation by examining the coupling of anodic oxidation reactions with the production of hydrogen gas

297 t, metal-free electrocatalysts for hydrazine oxidation reaction, with low overpotential and high curr

298 oked in catalytic Cu/aminoxyl-driven alcohol oxidation reactions, with similar findings.

299 detection through the electrocatalyzed water oxidation reaction (WOR) at neutral pH.

300 d on the electrochemical monitoring of water oxidation reaction (WOR) catalyzed by iridium oxide (IV)