ライフサイエンスコーパス: photocatalytic

1 rated exceptional optoelectronic properties, photocatalytic ability in superoxide anion radical-media

2 To understand the photocatalytic act of dust particles, both GDD and ATD w

3 o understanding degradation processes of the photocatalytic active material.

4 ch techniques are highly suited for studying photocatalytic active material.

5 s exhibit excellent visible light responsive photocatalytic activities for efficiently degrading orga

6 The photocatalytic activities of the Al-TiO2 samples were in

7 The homogeneous and heterogeneous photocatalytic activities of the TBPCExBox(4+) , for the

8 lsion direction, by exploiting the different photocatalytic activities on both sides.

9 n in the visible region and greatly enhanced photocatalytic activities on H2 generation comparing wit

10 prepared from Al(NO3)39H2O exhibit the best photocatalytic activity among the four kinds of samples,

11 anocatalyst exhibits excellent visible-light photocatalytic activity and an apparent quantum efficien

12 A linear correlation was established between photocatalytic activity and the reciprocal of inter acti

13 lysts are shown to be able to possess higher photocatalytic activity because of spatial separation of

14 Despite the photocatalytic activity decreased with each cycle, it ca

15 BiVO(4) content in the network overcomes the photocatalytic activity due to the decrease in the reduc

16 The demonstration of an efficient photocatalytic activity for a composite based on lead-fr

17 ZTS/MoS2-rGO system also demonstrated stable photocatalytic activity for a continuous 20 h reaction.

18 s and exhibit superior UV- and visible-light photocatalytic activity for ammonia synthesis at ambient

19 among the highest in Zr-MOFs) but also high photocatalytic activity for reduction of CO2 into CO ( a

20 ular CuCr-LDH nanosheets, possess remarkable photocatalytic activity for the photoreduction of N2 to

21 PeNC of Cs(3)Bi(2)I(9) had the best photocatalytic activity for the reduction of CO(2) at th

22 cade that correlates with a near-doubling in photocatalytic activity from 2050 to 3810 mumol h(-1) g(

23 OFs, changes in the photoelectrochemical and photocatalytic activity have been rationalized with comp

24 arbon nitride (C(3) N(4) ) for enhancing its photocatalytic activity is still a challenging issue.

25 Here, we assess the photocatalytic activity of MIL-125, a TiO2/1,4-benzenedi

26 This superior behavior in photocatalytic activity of Nd(0.3)Sr(0.7)MnO(3) nanocomp

27 The photocatalytic activity of the (PW(12),Cp*Rh)@UiO-67 com

28 itching can also be achieved by coupling the photocatalytic activity of the SnO2-x NCs with the color

29 The photocatalytic activity of these bpy-containing PCPs can

30 mers, and that the key challenge to optimize photocatalytic activity of these materials is to prevent

31 re of the frontier orbitals, relevant to the photocatalytic activity of these solids.

32 1} facets could provide a way to enhance the photocatalytic activity of this material.

33 eration from the Cerenkov radiation-assisted photocatalytic activity of TiO(2) The model predictions

34 is correlation between electron transfer and photocatalytic activity provides new insight into struct

35 /MoS2-rGO heterostructure showed much higher photocatalytic activity than both Au and Pt nanoparticle

36 zo[b,d]thiophene sulfone co-polymer has a UV photocatalytic activity that rivals TiO2, but is much mo

37 ngle-crystalline nanosheets with outstanding photocatalytic activity toward CO2 reduction is prepared

38 ed, and the TiO2-S/rGO hybrid exhibited high photocatalytic activity under simulated sunlight.

39 We propose that the increase in photocatalytic activity upon heterogenization of the cat

40 42 backbone that show improved and prolonged photocatalytic activity with respect to equivalent physi

41 hibits the superior luminescent property and photocatalytic activity, which may find potential applic

42 350 degrees C, the crystalized TiO2 enhanced photocatalytic activity, while Fe3O4 was converted to ga

43 HP hybrid exhibited a significantly enhanced photocatalytic activity, with HER rates reaching 33.2 an

44 sheets of g-C(3) N(4) attain much intriguing photocatalytic activity.

45 separation efficiency and subsequently boost photocatalytic activity.

46 rder to reduce the band gap and maximize the photocatalytic activity.

47 e in carrier lifetime, and strongly enhanced photocatalytic activity.

48 e reduces its electron transport ability and photocatalytic activity.

49 he complexes have helped to understand their photocatalytic activity.

50 he MOF is not required to obtain the maximum photocatalytic activity.

51 e to a high photoconductive gain and reduced photocatalytic activity.

52 relates well with the observed trends in the photocatalytic activity.

53 The photocatalytic air pretreatment transforms NO gas into N

54 Photocatalytic alpha-functionalization of amines provide

55 This review aims to introduce the field of photocatalytic amino acid modification and discusses the

56 nanoparticle electrocatalytic amplification, photocatalytic amplification, and nanoimpacts of single

57 Photocatalytic and (photo) electrochemical responses of

58 strategies to incorporate microorganisms in photocatalytic and (photo)electrochemical systems to pro

59 upon photoexcitation is necessary to expand photocatalytic and biological imaging applications.

60 We report a photocatalytic and diastereoselective isomerization of a

61 diated silver nanoparticles (Iso-AgNPs), and photocatalytic and electrocatalytic activities of Iso-Ag

62 ation, and low efficiency and selectivity in photocatalytic and electrocatalytic CO(2) hydrogenation.

63 cyclic framework was studied via a series of photocatalytic and electrocatalytic reactions varying th

64 We report a combined photocatalytic and hydrogen atom transfer (HAT) approach

65 nSe as a state-of-the-art light absorber for photocatalytic and photoelectrochemical H(2) generation.

66 They have also gained a foothold in photocatalytic and photoelectrochemical processes recent

67 of efficient light-harvesting systems, like photocatalytic and photovoltaic ones.

68 of these materials for the thermocatalytic, photocatalytic, and electrocatalytic conversion of CO(2)

69 OS generation have been further exploited in photocatalytic antibacterial activity against methicilli

70 of heterojunction photocatalysts for various photocatalytic applications are also presented and appra

71 ojunction for solar-cell, photodetector, and photocatalytic applications are discussed.

72 ctivated O2s-Ti bond that may be relevant in photocatalytic applications in an aqueous medium.

73 amics important for photoelectrochemical and photocatalytic applications remains contentious and poor

74 eparation dynamics, properties essential for photocatalytic applications, using optical (OTA) and X-r

75 eworks (MOFs) for photovoltaic, sensing, and photocatalytic applications.

76 orks are regarded as promising materials for photocatalytic applications.

77 O-66(Hf) are among the most studied MOFs for photocatalytic applications.

78 eveloping new materials for photovoltaic and photocatalytic applications.

79 al design of 2D MOFs for photoelectronic and photocatalytic applications.

80 onstrated potential in photo-electronics and photocatalytic applications.

81 y diverse boronates, but a broadly efficient photocatalytic borylation method that can effect borylat

82 a general, metal-free visible light-induced photocatalytic borylation platform that enables borylati

83 The photocatalytic C-F functionalization of highly fluorinat

84 A mild and selective photocatalytic C-H (18)F-fluorination reaction has been

85 By evaluating the performance of a photocatalytic C-N cross-coupling reaction across multip

86 dation of the mechanistic underpinnings to a photocatalytic C-N cross-coupling reaction.

87 mechanistic insights into an iridium/nickel photocatalytic C-O cross-coupling reaction from time-res

88 photoinduced charge carriers to enhance the photocatalytic capability.

89 roenvironment-mapping platform that exploits photocatalytic carbene generation to selectively identif

90 this review, the development in the field of photocatalytic carbonylation is described by compiling t

91 sfer to exfoliated carbon nitride containing photocatalytic chain terminations.

92 mputationally, followed by the synthesis and photocatalytic characterization of a sub-library of more

93 rate the utility of these nanostructures for photocatalytic chemical reactions in the preferential ox

94 of catalyst loading and is key for achieving photocatalytic CO(2) conversion.

95 A mechanistic understanding of electro- and photocatalytic CO(2) reduction is crucial to develop str

96 pure-water system, hinder the development of photocatalytic CO(2) RR owing to the lack of effective c

97 crucial role of single Er atoms in promoting photocatalytic CO(2) RR.

98 ng energy efficiency of electrocatalytic and photocatalytic CO2 conversion to useful chemicals poses

99 reservoir would represent a role for TiO2 in photocatalytic CO2 reduction that has previously not bee

100 technique is reported for the synthesis of a photocatalytic composite material consisting of orthorho

101 The stability of Co4O4-dpk under photocatalytic conditions ([Ru(bpy)3](2+)/S2O8(2-)) was

102 In situ XANES experiments under photocatalytic conditions show that the {Co(II)4O4} core

103 pate in chlorine atom abstraction under mild photocatalytic conditions.

104 Herein, we report the photocatalytic construction of 2,7-diazabicyclo[3.2.1]oc

105 mbination rate has been the big challenge to photocatalytic conversion efficiency.

106 Photocatalytic conversion of CO(2) to reduced carbon sta

107 Photocatalytic conversion of CO2 into carbonaceous feeds

108 The photocatalytic conversion of the greenhouse gas CO(2) to

109 employed in catalytic, electrocatalytic, and photocatalytic conversions, have surfaces that are typic

110 e, we describe a high-performance recyclable photocatalytic core-shell nanofibre system that integrat

111 Reductive termination of the photocatalytic cycle generates an anion that undergoes a

112 Turnover of this new photocatalytic cycle occurs along with the reformation o

113 Herein, we report conditions for a photocatalytic decarboxylative C-O bond formation reacti

114 luated electrochemical degradation (ECD) and photocatalytic degradation (PCD) technologies for saline

115 hydrocarbons were formed in solution, while photocatalytic degradation did not show the formation of

116 findings lay a foundation for predicting the photocatalytic degradation efficiency for the myriad of

117 f free chlorine and chlorinated compounds in photocatalytic degradation is discussed based on photoel

118 NS served dual role of detection as well as photocatalytic degradation of food colorant.

119 The potential of MXenes for the photocatalytic degradation of organic pollutants in wate

120 3 is a well known catalyst, the simultaneous photocatalytic degradation of organic pollutants present

121 Here, we examine the photocatalytic degradation of rhodamine B by visible lig

122 results in a record-high and stable sunlight photocatalytic degradation rate of 0.24 s(-1) , which ex

123 nd demonstrates the online monitoring of the photocatalytic degradations of methylene blue and methyl

124 approach gives a detailed description of the photocatalytic desulfurization process on TiO(2), in whi

125 devices, such as perovskite solar cells and photocatalytic devices, it is important to tailor its ba

126 An intermolecular, photocatalytic dicarbofunctionalization (DCF) of olefins

127 Efficient photocatalytic disinfection of Escherichia coli O157:H7

128 rid and bacteria is not indispensable in the photocatalytic disinfection process.

129 The photocatalytic effect endows the adsorbent with high ant

130 hotoinduced photothermal, photoelectric, and photocatalytic effects of black phosphorus (BP) nanoshee

131 Plasmon-assisted photocatalytic efficiencies can improve when intermediat

132 03<x<0.20) were reported to show competitive photocatalytic efficiencies under visible light, which w

133 flexible spectral tunability, stability, and photocatalytic efficiencies.

134 ts with surface defects is proposed to boost photocatalytic efficiency by simultaneously promoting bu

135 ith a mass ratio of (1:10) shows the highest photocatalytic efficiency compared to the other composit

136 as an interesting alternative to improve the photocatalytic efficiency due to the possibility of cont

137 The photocatalytic efficiency of Nd(0.3)Sr(0.7)MnO(3) nanoco

138 cted considerable attention in enhancing the photocatalytic efficiency of TiO2 under visible light ir

139 allographic positions of MOFs promoted their photocatalytic efficiency.

140 fer of charge carriers and in turn boost the photocatalytic efficiency.

141 Photocatalytic, electrocatalytic and physicochemical pro

142 y the amidyl radical, which was generated by photocatalytic fragmentation of a pre-functionalized ami

143 s tutorial review, the integration of CDs in photocatalytic fuel generation systems with metallic, mo

144 are promising emerging light-harvesters for photocatalytic fuel production systems.

145 In terms of energy conversion, photocatalytic fuel production, such as hydrogen evoluti

146 Herein we report the photocatalytic generation of a mononuclear non-haem [(13

147 makes it exhibit 21.7 and 232.6 times higher photocatalytic H(2) evolution activity than those of In(

148 a simple, efficient, and low-cost all-in-one photocatalytic H(2) evolution system composed of a thiaz

149 In(2) O(3) -ZISe-Mo is also very stable for photocatalytic H(2) production by showing almost no acti

150 nosheet photocatalysts for greatly enhancing photocatalytic H(2) production is made.

151 nic dyes, carbon nitride, and COF-sensitized photocatalytic H(2)O reduction systems.

152 acilitate electron-hole transfer for raising photocatalytic H2 evolution activity.

153 stability and activity in both electro- and photocatalytic HER in neutral water.

154 separation and transfer, which benefited the photocatalytic HER performance.

155 ore active 1T' phase as true active sites in photocatalytic HERs, resulting in a "catalytic site self

156 unactivated internal alkenes(5-7), including photocatalytic hydroamination(8,9), and no asymmetric in

157 O(4) Br displays 4.9 and 30.9 times enhanced photocatalytic hydrogen evolution and nitrogen fixation

158 but the fast charge recombination limits its photocatalytic hydrogen evolution reaction (HER) activit

159 S] catalyst systems for electrocatalytic and photocatalytic hydrogen evolution reactions.

160 We demonstrate photocatalytic hydrogen evolution using COF photosensiti

161 be promising photocatalysts for sacrificial photocatalytic hydrogen evolution with a maximum rate of

162 MoS2-rGO hybrid is a better co-catalyst for photocatalytic hydrogen generation than the precious met

163 In photocatalytic hydrogen generation under visible light i

164 Semiconductor compounds are widely used for photocatalytic hydrogen production applications, where p

165 e catalyst exhibits a superior visible-light photocatalytic hydrogen production rate (~212 umol h(-1)

166 ecoupling of the light and dark reactions of photocatalytic hydrogen production through the radical's

167 harge conversion efficiencies, (ii) gains in photocatalytic longevity, and (iii) insights into the ET

168 vel composition named carbon-based composite photocatalytic material of zinc oxide and zinc sulphide

169 ominantly used for semiconducting and hybrid photocatalytic materials will be reviewed as surface are

170 -organic frameworks (MOFs) as highly tunable photocatalytic materials, systematic studies that interr

171 stereoselective C-C oxidative coupling via a photocatalytic means using specially designed perovskite

172 lectron trapping recombination and plausible photocatalytic mechanism are also explored, and the repo

173 abrication of STAO and its unique quasi-atom photocatalytic mechanism lays new ground for achieving n

174 Quantum PIs, and provided insights for their photocatalytic mechanism of action.

175 The radical species involved within the photocatalytic mechanisms were also explored through use

176 or photocatalysts with the post-illumination photocatalytic "memory" could be largely expanded to sem

177 h(-1) ), it might also be the highest among photocatalytic methane conversions reported so far under

178 ndence on light intensity cause the unheated photocatalytic methane production rate to exceed the the

179 A photocatalytic method for the aerobic oxidative cleavage

180 We report here a photocatalytic method for the intermolecular anti-Markov

181 An efficient photocatalytic method was developed for the remote C5-H

182 With the development of new photocatalytic methods over recent decades, the translat

183 -assembly to vesicles; and (iii) the role of photocatalytic minerals in harvesting light energy to dr

184 des low-potential photoexcited electrons for photocatalytic N(2) reduction.

185 ane (Fe4S4) biomimetic clusters demonstrates photocatalytic N2 fixation and conversion to NH3 in ambi

186 Reported herein is a photocatalytic non-chain-radical aroyl chlorination of a

187 The photocatalytic O-H dissociation of water absorbed on a r

188 A photocatalytic olefin hydroaminoalkylation brings togeth

189 olution rate and TON, coupled with long-term photocatalytic operation of this hybrid system in water,

190 Visible light-mediated photocatalytic organic transformation has drawn signific

191 y reactions at the interface that may govern photocatalytic organic transformations in natural and en

192 Photocatalytic overall water splitting proceeded using M

193 tive sites and fine-tuned the selectivity in photocatalytic oxidation of tetrahydrofuran (THF) to exc

194 This system is a model for the photocatalytic oxidation of water by TiO2 in an aqueous

195 The method was shown to provide fast photocatalytic oxidation reactions and analysis with thr

196 latform for studying titanium dioxide (TiO2) photocatalytic oxidation reactions by performing reactio

197 d CH3OH may also be an active species in the photocatalytic oxidation to CH2O.

198 ant binary metal catalyst displays excellent photocatalytic oxygen evolution activity with almost 100

199 We report the enhancement of photocatalytic performance by introduction of hydrogen-b

200 search interest because of its visible light photocatalytic performance combined with good stability

201 -x , monolayer BiO2-x has exhibited enhanced photocatalytic performance for rhodamine B and phenol re

202 The photocatalytic performance is evaluated by quantifying t

203 The improved photocatalytic performance is primarily attributed to th

204 c systems is very promising for boosting the photocatalytic performance of H(2) production and CO(2)

205 edance spectroscopy reveal that the enhanced photocatalytic performance of In(2) O(3) -ZISe-Mo is mai

206 The photocatalytic performance of the Nd(1-x)Sr(x)MnO(3) nan

207 ovide key mechanistic understanding on their photocatalytic performance, including the photo-reductio

208 thesize TiO2-S/rGO hybrid, and its excellent photocatalytic performance, such TiO2-S/rGO hybrids are

209 rons into g-C(3) N(4) with markedly improved photocatalytic performance.

210 rge recombination impede the sunlight-driven photocatalytic performance.

211 bination, is responsible for the outstanding photocatalytic performance.

212 O2 was evaluated to demonstrate its improved photocatalytic performance.

213 However, the manner in which the photocatalytic performances are impacted by the amount o

214 and output modules to implement a UV-induced photocatalytic/peroxidation nanoparticle/DNAzyme reactio

215 eration is missing from both the thermo- and photocatalytic perspectives.

216 The photocatalytic polymerization clearly depends on the con

217 e can serve as electron acceptors during the photocatalytic polymerization reaction.

218 Photocatalytic polymers offer an alternative to prevaili

219 The complexity-generating photocatalytic process also provides direct access to no

220 We report a visible-light-activated photocatalytic process that introduces a covalent modifi

221 pping active oxygen species generated in the photocatalytic process, polymerization could be implemen

222 This competition can be exploited to design photocatalytic processes to favor specific chemical tran

223 dition to the well-known behaviour of ISs in photocatalytic processes, CPs have emerged as an interes

224 o energy-rich molecules (solar fuel) through photocatalytic processes, invariably starts with photoin

225 the excited populations that have utility in photocatalytic processes.

226 mized conditions, the nanofibres promote the photocatalytic production of hydrogen from water with an

227 Due to the superior photocatalytic properties of poly(heptazine imide) (PHI)

228 rphologies, thermal stability of anatase and photocatalytic properties of the as-prepared Al-TiO2 nan

229 sses of optoelectronic devices and excellent photocatalytic properties.

230 g the plasmon decay) are responsible for the photocatalytic property of this material under visible l

231 This mild and reliable photocatalytic protocol enables C-S coupling at the most

232 A new visible light-induced photocatalytic protocol enabling the formation of second

233 Reported here is a photocatalytic protocol for the functionalization of ben

234 We report a new photocatalytic protocol for the redox-neutral isomerizat

235 In the last few decades, photocatalytic radical carbonylation strategies have rec

236 matic impact on the rate of a representative photocatalytic radical cation Diels-Alder reaction.

237 Methods: Using a photocatalytic radical fluorination, we prepared a serie

238 phonyl-arylations of vinyl ureas by way of a photocatalytic radical-polar crossover mechanism.

239 creased amounts of bdc-NH2 yielded increased photocatalytic rates, followed by a plateau up to 100% b

240 physics, light interaction with matter, and photocatalytic reaction engineering.

241 lations indicate that the chiral bias of the photocatalytic reaction is associated with the chiral en

242 Their main photocatalytic reaction products were mostly similar to

243 miconductor-based electrodes to achieve high photocatalytic reaction rates.

244 on processes that are key components of many photocatalytic reaction schemes.

245 The photocatalytic reaction was successfully performed on a

246 sing inorganic compounds and for single site photocatalytic reactions in confined space.

247 an empirically derived parameter for scaling photocatalytic reactions in flow.

248 However, the efficiency of photocatalytic reactions remains low due to the fast ele

249 The products of the photocatalytic reactions were analyzed using a gas chrom

250 their superior optoelectronic properties for photocatalytic reactions, including high absorption coef

251 the transfer of electrons to participate in photocatalytic reactions.

252 s trapping reduces the efficiency of surface photocatalytic reactions.

253 Its photocatalytic reactivity was evaluated by the degradati

254 Mass-, surface area-, and photocatalytic reactivity-based functional units are sel

255 This photocatalytic redox imbalance strategy offers a new app

256 f free radicals from thiazolinium salts upon photocatalytic reduction is described.

257 e nanocrystals (PeNCs) with applications for photocatalytic reduction of carbon dioxide to methane an

258 The solar-driven photocatalytic reduction of CO(2) (CO(2) RR) into chemic

259 The possible mechanism for photocatalytic reduction of CO2 -to-CO over ZrPP-1-Co is

260 Photocatalytic reduction of molecular oxygen is a promis

261 n of a pyridinium linker that immolates upon photocatalytic reduction with a ruthenium complex to yie

262 e conversion efficiency of the nanocomposite photocatalytic reduction.

263 CTF-HUST-HC1 has superior performance in the photocatalytic removal of nitric oxide (NO) than its les

264 This mechanistic insight provided a novel photocatalytic route based on N-substituted auxiliaries

265 al reactivity in solar energy conversion and photocatalytic schemes.

266 fission will pave the way for improving the photocatalytic selectivity and turnover.

267 In photocatalytic solar fuel production, these electron pro

268 lable photocatalytic system allows efficient photocatalytic solar transformations.

269 Semiconducting photocatalytic solar-hydrogen conversion (SHC) from wate

270 Recent photocatalytic strategies for the formation of O-CF(3) ,

271 Herein we report the development of a photocatalytic strategy for the divergent preparation of

272 The conventional batch photocatalytic studies on lignin, often using dissolved

273 expand possibilities for developing designer photocatalytic substrates.

274 with paragraphs discussing the visible-light photocatalytic synthetic protocols so far available for

275 Overall, the use of a metal-free, recyclable photocatalytic system allows efficient photocatalytic so

276 The development of a photocatalytic system for lignin depolymerization in a c

277 A photocatalytic system for the dearomative hydroarylation

278 This photocatalytic system operates in pure and untreated sea

279 by boosting the activity of a titania (TiO2) photocatalytic system.

280 riphenylphosphine in the presence of various photocatalytic systems (dicyanoanthracene/biphenyl, N-me

281 ver commonly used heterogeneous catalysts in photocatalytic systems by increasing the efficiency of r

282 lopment of inorganic catalysts, electro- and photocatalytic systems for fuel generation have evolved

283 Plasmon-mediated photocatalytic systems generally suffer from poor effici

284 However, most photocatalytic systems involve rare and expensive platin

285 al electron transfer processes present in CD photocatalytic systems is outlined and various avenues f

286 l photosynthesis, the design of new Z-scheme photocatalytic systems is very promising for boosting th

287 Photocatalytic systems that combine light-harvesting mat

288 )-catalyzed systems or visible-light-induced photocatalytic systems that would be capable of mediatin

289 ide perovskite solar cells, and finally some photocatalytic systems.

290 ucted to characterize surface changes in the photocatalytic TiO2 powder using near-ambient-pressure X

291 onments, where they play a prominent role in photocatalytic transformations of bound organics.

292 Selective photocatalytic transformations of chemicals derived from

293 f visible light, it has been applied for the photocatalytic uphill conversion of trans-stilbene to ci

294 The initial step of photocatalytic water oxidation reaction at the metal oxi

295 to attach molecular units to photoanodes for photocatalytic water oxidation.

296 Photocatalytic water splitting is attracting enormous in

297 d reviews focussing on various materials for photocatalytic water splitting, to date only few reviews

298 any of its practical applications, including photocatalytic water splitting.

299 ergy technologies, including solar cells and photocatalytic water splitting.

300 lkylated amines, we herein rationally design photocatalytic water-splitting to furnish [H] or [D] and