ライフサイエンスコーパス: photocatalysis

1 ries for a range of research problems beyond photocatalysis.

2 ortant implications in plasmonic facilitated photocatalysis.

3 r splitting by membraneless electrolysis and photocatalysis.

4 ial applications spanning photodetection and photocatalysis.

5 f chemical reactions possible with plasmonic photocatalysis.

6 ment-friendly material for photovoltaics and photocatalysis.

7 xidation reactions for energy conversion and photocatalysis.

8 h as bioimaging, light-emitting devices, and photocatalysis.

9 ations in areas as diverse as biosensing and photocatalysis.

10 hotons to be harnessed for photovoltaics and photocatalysis.

11 eptide oxidation induced by titanium dioxide photocatalysis.

12 plex to serve as a platform for two-electron photocatalysis.

13 direct relevance for their implementation in photocatalysis.

14 ir formation, thus substantially reinforcing photocatalysis.

15 anistic pathway for thiourea-mediated organo-photocatalysis.

16 idely studied model system for heterogeneous photocatalysis.

17 ible-light water splitting and CO2 reduction photocatalysis.

18 mal metal domain size for the most efficient photocatalysis.

19 can participate as a sustainable reagent in photocatalysis.

20 of catalysis, including bio-, electro-, and photocatalysis.

21 n laser sources for studying the dynamics of photocatalysis.

22 combined with other catalytic methods, e.g., photocatalysis.

23 pairs, useful for photocurrent generation or photocatalysis.

24 not compatible with in situ applications in photocatalysis.

25 rom N-(acyloxy)phthalimides by visible-light photocatalysis.

26 specific case, a clear strategic benefit of photocatalysis.

27 ee progress in the field of plasmon-mediated photocatalysis.

28 ilines with alkynes enabled by visible-light photocatalysis.

29 sustainability of Cu-EDTA treatment via TiO2 photocatalysis.

30 applications in photovoltaics, sensing, and photocatalysis.

31 in electrocatalysis, thermal catalysis, and photocatalysis.

32 gy conversion through both photovoltaics and photocatalysis.

33 d provide a novel paradigm for visible-light photocatalysis.

34 cteristic for efficient electron transfer in photocatalysis.

35 ficient catalysts especially in electro- and photocatalysis.

36 ive organic transformations by heterogeneous photocatalysis.

37 rds understanding supramolecular effects and photocatalysis.

38 e of application needs from photovoltaics to photocatalysis.

39 O2 is not an efficient electron scavenger in photocatalysis.

40 y bonded materials relevant for electro- and photocatalysis.

41 osensitizer in hydrogen-evolving homogeneous photocatalysis.

42 ers for fuel cells, and titanium dioxide for photocatalysis.

43 onic metallic nanostructures in the field of photocatalysis.

44 oxides for applications in photovoltaics and photocatalysis.

45 single photon emission, in vivo imaging, and photocatalysis.

46 nductor, and it is an important material for photocatalysis.

47 ies, fuel cells, electrochemical sensors and photocatalysis.

48 cover covalent organic frameworks (COFs) for photocatalysis.

49 nanoantennas for energy-efficient plasmonic photocatalysis.

50 n synergy to promote efficient and selective photocatalysis.

51 ng blocks have been explored for sustainable photocatalysis.

52 rganic chemicals using light irradiation and photocatalysis.

53 thermal processes, but rare in visible-light photocatalysis.

54 complexes are widely recognized and used in photocatalysis.

55 various applications, including electro- and photocatalysis.

56 quantum information and near-infrared driven photocatalysis.

57 for field effect devices, photovoltaics, and photocatalysis.

58 ore for this alternative mode of cooperative photocatalysis.

59 s of thermal catalysis, electrocatalysis, or photocatalysis.

60 omising applications in light harvesting and photocatalysis.

61 red drug delivery, photodynamic therapy, and photocatalysis.

62 t organic framework (TpTt) for heterogeneous photocatalysis.

63 offering intriguing opportunities for solar photocatalysis.

64 een proposed in other systems across dual Ni photocatalysis.

65 ed development of a more holistic science in photocatalysis.

66 ria and disrupts electron transport via NADH photocatalysis.

67 es that can be optimised for applications in photocatalysis.

68 hockley-Queisser limit for photovoltaics and photocatalysis.

69 ed into high charge extraction for efficient photocatalysis.

70 erties and hence mechanisms involved in TiO2 photocatalysis.

71 light-emitting diodes, for biosensing and in photocatalysis.

72 sed in applications such as enantioselective photocatalysis(1), circularly polarized light detection(

73 er across interfaces form the foundation for photocatalysis(1,2), energy harvesting(3) and photodetec

74 Recently, interest in photocatalysis(4) has spurred the discovery of novel rea

75 s(2,3), photon frequency conversion(4,5) and photocatalysis(6,7).

76 ong adsorption capacity and high ultraviolet photocatalysis ability.

77 h nanostructures by transient-absorption and photocatalysis action spectrum measurement.

78 Redox catalysis, including photocatalysis and (photo)electrocatalysis, may alleviat

79 echnologies of heating, photovoltaics, water photocatalysis and artificial photosynthesis depend on t

80 processes such as light harvesting, vision, photocatalysis and chemical reactivity.

81 hierarchical assemblies in light generation, photocatalysis and conversion of motion to electricity.

82 combination of visible light activated (VLA) photocatalysis and copper ion toxicity.

83 The applications of MOFs in organic photocatalysis and degradation of model organic pollutan

84 Visible-light photocatalysis and electrocatalysis are two powerful str

85 n applications such as amperometric sensing, photocatalysis and electrocatalysis.

86 nsing, biosensing, bioimaging, nanomedicine, photocatalysis and electrocatalysis.

87 promising wide-band-gap support material for photocatalysis and electronic control of catalysis.

88 num, and ruthenium play an important role in photocatalysis and energy conversion applications as wel

89 o its potential application in heterogeneous photocatalysis and energy conversion.

90 asymmetric transformations by the merger of photocatalysis and enzyme catalysis.

91 properties are an ideal platform for organic photocatalysis and exploring atomic-level behaviors.

92 Fs are potential candidates for separations, photocatalysis and for energy storage applications.

93 A combination of visible light photocatalysis and gold catalysis is applied to a ring e

94 and or adsorbates in colloidal catalysis and photocatalysis and have important implications for the t

95 active for energy conversion in solar cells, photocatalysis and hydrogen generation.

96 The combination of photocatalysis and hypervalent iodine reagent provides a

97 lar to the products observed earlier in TiO2 photocatalysis and in in vitro phase I metabolism assays

98 ecay, play key roles in applications such as photocatalysis and in photodetectors that circumvent ban

99 g a wide range of technologies, particularly photocatalysis and light-emitting diodes, but they rely

100 Dual photocatalysis and nickel catalysis can effect cross-cou

101 Owing to their promise in photocatalysis and optoelectronics, titanium based metal

102 njugated building blocks for applications in photocatalysis and optoelectronics.

103 , recent strides in bridging the gap between photocatalysis and other areas of catalysis will be high

104 e oxygenation of C-H bonds via the merger of photocatalysis and Pd catalysis.

105 ariety of applications in energy conversion, photocatalysis and photodetection.

106 unate in my own research to be able to study photocatalysis and photoinduced electron transfer as uni

107 Photocatalysis and photovoltaics are two of the most imp

108 BX3) was observed to play important roles in photocatalysis and photovoltaics.

109 rials with a wide variety of applications in photocatalysis and photovoltaics.

110 for a variety of applications from lasing to photocatalysis and photovoltaics.

111 when designing donor-acceptor assemblies for photocatalysis and photovoltaics.

112 undamental principles of energy transfer and photocatalysis and provide an overview of the latest pro

113 ergy storage, surface wetting/self-cleaning, photocatalysis and sensors.

114 the role of metal in semiconductor-assisted photocatalysis and size-dependent catalytic activity of

115 ive Caryl-F bonds via the synergistic use of photocatalysis and SNAr chemistry.

116 anatase, the TiO2 polymorph most relevant in photocatalysis and solar energy conversion.

117 ept study provides a new methodology for NIR photocatalysis and would potentially guide future concep

118 properties, such as flexoelectricity, piezo-photocatalysis, and an anomalous photovoltaic effect, de

119 ion of wavelength conversion to solar cells, photocatalysis, and antimicrobial surfaces.

120 tential applications in organic electronics, photocatalysis, and energy storage.

121 emerging solar energy conversion processes, photocatalysis, and geochemical transformations.

122 wealth of applications in electrocatalysis, photocatalysis, and heterogeneous catalysis.

123 (II) compounds are widely used in catalysis, photocatalysis, and medical applications.

124 tral to many phenomena, including catalysis, photocatalysis, and molecular electronics.

125 hemical sensing, solid-state light emitters, photocatalysis, and optoelectronics.

126 tant for its use in solar energy conversion, photocatalysis, and other applications.

127 many applications, including photovoltaics, photocatalysis, and photodetection.

128 applications such as plasmonic solar cells, photocatalysis, and photothermal heating.

129 approaches to energy conversion, synthesis, photocatalysis, and so forth.

130 ssed processes, i.e., sonolysis, photolysis, photocatalysis, and sonocatalysis.

131 c and molecular reactions, electrocatalysis, photocatalysis, and views of prospects.

132 -atypical of the currently known homogeneous photocatalysis-and features the storage of multiple redo

133 to the BiOBr/MO system, the sulfite-assisted photocatalysis approach has been successfully demonstrat

134 strategies for enhancing the selectivity in photocatalysis are abridged to reinvigorate and stimulat

135 Mechanistically distinct modes of photocatalysis are discussed, including photoinduced ele

136 Cost-effective and efficient photocatalysis are highly desirable in chemical synthesi

137 gress of the spectro-kinetic approach in the photocatalysis area.

138 direct implications for understanding TiO(2) photocatalysis as well as the surface modifications invo

139 om thermal catalysis to hot-carrier-mediated photocatalysis, as reported very recently in Zhou, L.; e

140 g the fundamental principles of electro- and photocatalysis, as well as for developing highly efficie

141 alysis, heterogeneous catalysis, optical and photocatalysis, as well as magnetism and conclude the re

142 apacitors, fuel cells, photovoltaic devices, photocatalysis, as well as Raman enhancement are describ

143 d ultrafast in situ infrared spectroscopy of photocatalysis at an n-SrTiO3/aqueous interface, we reve

144 The protein environment enables photocatalysis at pH 6.3 in completely aqueous condition

145 Semiconductor-based photocatalysis attracts wide attention because of its ab

146 Semiconductor photocatalysis attracts widespread interest in water spl

147 This robust approach for photocatalysis-based energy harvesting and extended rele

148 Can photocatalysis be performed without electron or energy t

149 ity spectroscopies, light energy harvesting, photocatalysis, biomedical imaging and theranostics, opt

150 hose recently discovered using visible-light photocatalysis but without the use of an expensive photo

151 xperiments establish the role of hydrides in photocatalysis by biomimetic diiron complexes.

152 im of overcoming the existing limitations of photocatalysis by developing more creative synthetic met

153 m two perspectives, namely, the promotion of photocatalysis by thermal energy and the promotion of th

154 Visible light photocatalysis can address these challenges, as reflecte

155 ethods such as that used in this study bring photocatalysis closer to being a viable water treatment

156 Time-dependent photocatalysis degradation of the polycyclic aromatic hy

157 Dye-sensitised photocatalysis (DSP) with molecular catalysts is a relat

158 he long-standing popularity of semiconductor photocatalysis due to its great potential in a variety o

159 We also show that the distance of photocatalysis efficiency (d(s)) at which radical interm

160 Our results suggest that the photocatalysis efficiency of nanocrystals can be signifi

161 rsuing the stem of g-C3N4 related catalysis (photocatalysis, electrocatalysis and photoelectrocatalys

162 d to solar energy conversion (photovoltaics, photocatalysis), electrochemical energy storage, and the

163 ies and it is widely applied, for example in photocatalysis, electrochemical energy storage, in white

164 ropes in a number of applications (including photocatalysis, electrochemistry, electronics and optoel

165 adiation, to research areas such as sensing, photocatalysis, electronics, and biomedicine.

166 Visible-light-activated transition metal photocatalysis enables the use of ammonium persulfate as

167 ategies which can improve the selectivity of photocatalysis encompassing a wide variety of photocatal

168 The application of photocatalysis enhancement to calibration of fluorescenc

169 structural effects on obvious far red-to-NIR photocatalysis enhancement, which originates from (1) En

170 The reaction involves dual photocatalysis ensuing two sp(3) C-H bond functionalizat

171 MPC-1-coated vessels enable batch and flow photocatalysis, even with opaque reaction mixtures, via

172 Photocatalysis experiments with this modified flavodoxin

173 he role of hydrogen bonding in enhancing the photocatalysis for CO(2) reduction through supramolecula

174 While the field of heterogeneous photocatalysis for pollutant abatement and mineralisatio

175 the catalyst species lead to oxygen-mediated photocatalysis for the Cr-containing complex but radical

176 needed to move the field of plasmon-mediated photocatalysis forward.

177 eactions and exhibit enhanced performance in photocatalysis, gas sensing and as Li-ion battery electr

178 ly protected nanoscopic local areas from the photocatalysis grafting reaction.

179 The field of heterogeneous photocatalysis has almost exclusively focused on semicon

180 Heterogeneous photocatalysis has become a comprehensively studied area

181 Coupling a reversal of this methodology with photocatalysis has been demonstrated to allow the rapid

182 Photocatalysis has been invariably considered as an unse

183 of time, and the investigation on selective photocatalysis has been largely neglected.

184 Solar-driven heterogeneous photocatalysis has been widely studied as a promising te

185 Currently, organic photocatalyst-based photocatalysis has garnered significant attention as an

186 of catalytic behavior but its application in photocatalysis has inherent difficulties due to the natu

187 Photocatalysis has not found widespread industrial adopt

188 Photocatalysis has recently emerged as a mild approach f

189 cal importance, the structural basis for POR photocatalysis has remained unknown.

190 e intermediates accessible via visible light photocatalysis, has accelerated the development of this

191 acid based organocatalysis and visible-light photocatalysis have both emerged as promising technologi

192 Advances in photocatalysis have significantly expanded the chemist's

193 ed chemical transformations.Plasmon-enhanced photocatalysis holds promise for the control of chemical

194 Applications in photochemistry and photocatalysis, however, are plagued by poor light harve

195 On the other hand, heterogeneous photocatalysis (HPC) arose as a promising technology for

196 an advanced oxidation process (heterogeneous photocatalysis (HPC)) were used to disinfect urban WW to

197 water-stability has been applied to promote photocatalysis in aqueous medium, in particular by devis

198 force analysis, unveiled the crucial role of photocatalysis in both initiating and sustaining a Ni(I)

199 ion of MeOH by TiO2 NPs as a model system of photocatalysis in solution.

200 The role of photocatalysis in such lignin depolymerizations is quest

201 photogenerated carriers for high efficiency photocatalysis in the hydrogen evolution half-reaction,

202 the transferred electrons in the Pt tip and photocatalysis in the presence of sacrificial hole accep

203 lso discusses the mechanism of heterogeneous photocatalysis in the presence of TiO2.

204 ation and focus on understanding the role of photocatalysis in the product generation and authenticat

205 2 complexes that participate in HX-splitting photocatalysis in which metal-metal cooperation is credi

206 Photocatalysis, in which solar photons are used to drive

207 anoparticles show promising applications for photocatalysis, including light-driven H(2) production.

208 Additionally, photocatalysis involving Ti-MOFs relies on cocatalysts r

209 Solar photocatalysis is a potential solution to satisfying ene

210 Semiconductor-sensitised photocatalysis is a well-established and growing area of

211 Photocatalysis is also an essential route for the degrad

212 Asymmetric photocatalysis is complicated by the short lifetimes and

213 In recent years, the field of selective photocatalysis is developing rapidly and now extended to

214 cal studies revealed that the enhancement in photocatalysis is due not to differences in intrinsic pr

215 ydrogen production from water by electro- or photocatalysis is of current scientific and technologica

216 f the benefits of compounds showing TADF for photocatalysis is presented, which paints a picture of a

217 to DNA or to tubulin, and red light (660 nm) photocatalysis is used to initiate a cascade of DHTz oxi

218 , this common thermal cocatalyst employed in photocatalysis is, itself, photoactive.

219 been performed to understand the underlying photocatalysis mechanism of the nitrogen-doped titania n

220 ent uncovers a hot plasmonic electron-driven photocatalysis mechanism with an identified electron tra

221 applications such as contaminant adsorption, photocatalysis, membrane-based separation, sensing, and

222 w of their special role in special selective photocatalysis, namely epoxidation reactions, among othe

223 hat enable a wide variety of applications in photocatalysis, nanoelectronics and phototherapy.

224 Under dry, anaerobic conditions, TiO(2) photocatalysis of carboxylic acid precursors resulted in

225 ihot to study the adsorption, desorption and photocatalysis of carminic acid on these materials.

226 These results expand the current view on the photocatalysis of CH3OH on TiO2(110) by highlighting the

227 Correction for 'Selective photocatalysis of lignin-inspired chemicals by integrati

228 describe the synthesis through visible-light photocatalysis of novel functionalized tetracyclic scaff

229 mbination of adsorption, biodegradation, and photocatalysis of triclosan by algae and P25, triclosan

230 t band gap of around 2.0 eV, the optimum for photocatalysis of water splitting, is readily accessible

231 visible-light organic photoredox catalysis (photocatalysis) of methylene blue chromophore with a sac

232 To this end, visible-light photocatalysis offers unique opportunities to achieve sm

233 s and observations of crystal-face-dependent photocatalysis on anatase, and support the idea that opt

234 ses on the potential revolutionary impact of photocatalysis on Earth.

235 Photo-thermo catalysis, which integrates photocatalysis on semiconductors with thermocatalysis on

236 an be considered to be examples of oxidative photocatalysis, OP.

237 ovides a desirable platform for eco-friendly photocatalysis, optoelectronic devices, biolabeling, and

238 tracted tremendous attention in the field of photocatalysis, owing to their superior optoelectronic p

239 find in the emerging fields of electro- and photocatalysis, particularly in the context of the susta

240 The results show that photocatalysis performs much better than photolysis alon

241 Several examples of applications in photocatalysis, (photo)sensors, photonics, photovoltaics

242 n generation is beneficial, such as in solar photocatalysis, photodetectors and nonlinear devices.

243 ith wide applications to photosensitization, photocatalysis, photodynamic therapy, photovoltaic conve

244 catalysis including heterogeneous catalysis, photocatalysis, photoelectrocatalysis and electrocatalys

245 onal correlation among molecules to optimize photocatalysis, photovoltaics, and energy storage.

246 H2 photocatalysis proceeds even under aerobic conditions fo

247 In general, photocatalysis provided higher yields and better selecti

248 The study also shows that titanium dioxide photocatalysis provides a fast and easy method to study

249 ntenna-reactor heterostructures in plasmonic photocatalysis provides a sustainable route to high-valu

250 heterogeneous catalytic systems (thermal and photocatalysis) require noble metals or harsh reaction c

251 momentum transfer, photothermal heating, and photocatalysis, respectively.

252 main applications in thermo-, electro-, and photocatalysis, revealing trends in element-specific evo

253 iconductor sensitisers, to promote reductive photocatalysis, RP, especially of dyes, is significant a

254 catalysts in bimolecular and supramolecular photocatalysis schemes for proton reduction is briefly r

255 prove its performance in the applications of photocatalysis, solar cells, Li batteries, and transpare

256 operties of COFs for applications related to photocatalysis, solid-state light emitters, and chemical

257 The anaerobic photocatalysis strategy offers a range of synthetic poss

258 Considering these facts, photocatalysis studies on lignin entail a thoughtful ree

259 ient way to overcome important challenges in photocatalysis, such as controlling catalytic activity a

260 gradation by visible light (lambda > 400 nm) photocatalysis suggested that adsorbed OFX-ClO(4)(-) ion

261 size their applications in electrocatalysis, photocatalysis, supercapacitors, batteries, and photovol

262 ol g(-1) h(-1) , which could rival excellent photocatalysis system.

263 ls and in sensitizer-catalyst assemblies for photocatalysis that operate with irradiation from the ul

264 sively as stoichiometric electron donors for photocatalysis, the controlled modification of amine sub

265 In the field of photocatalysis, the high-charge recombination rate has b

266 The sensitizer is regenerated during the photocatalysis; therefore, 4-CP effectively reduces the

267 cross-cut energy conversion (photovoltaics, photocatalysis, thermoelectrics), energy storage (lithiu

268 oduction of pharmaceutics and food, bio- and photocatalysis, thin-film solar cells and antibacterial

269 ely detailing RP's roles and implications in photocatalysis, this review article will first include i

270 Transition metal photocatalysis thus represents a promising strategy towa

271 to the application of visible light-mediated photocatalysis to a challenging bond construction in a c

272 in areas ranging from quantum electronics to photocatalysis to battery materials.

273 t a comprehensive, mechanistic evaluation of photocatalysis to better understand how composition rela

274 nanosystems into synthetic applications from photocatalysis to optical devices need to demonstrate in

275 ess in the application of nanogold plasmonic photocatalysis to organic transformations and energy con

276 rfaces is crucial for processes ranging from photocatalysis to protein folding.

277 selectively converted to CO with almost same photocatalysis to that under a pure CO2 atmosphere (TONC

278 pplications in numerous related fields, from photocatalysis, to sensing, to imaging and beyond.

279 an aspect that is uncommon for conventional photocatalysis (type A).

280 ompared to the conventional cooperative/dual photocatalysis (type B), this new class of unconventiona

281 able solution that relies upon decatungstate photocatalysis under acidic conditions using either H2 O

282 to transform NCl3 into oxidizing chlorine by photocatalysis under laboratory conditions.

283 Although the same basics of photocatalysis unite applications in artificial photosyn

284 A recent focus on ligand-field photocatalysis using cobalt(III) polypyridyls in particu

285 ucleobases were synthesized by visible light photocatalysis using rhodamine 6G as photoredox catalyst

286 e state-of-the art of plasmon-based nanogold photocatalysis using visible light including fundamental

287 generating and transferring hot carriers for photocatalysis via PMCT have been rarely explored.

288 Its photocatalysis was observed under different atmospheres,

289 duction of the tetrasulfide, energy transfer photocatalysis was particularly useful.

290 ytic reactions, such as reforming processes, photocatalysis, water-gas shift reaction, thermochemical

291 Using electrochemical CO(2) reduction and photocatalysis, we demonstrate that the structural pecul

292 mocatalysis and Pd-TiO(2) for H(2) evolution photocatalysis) were used to showcase the universal impo

293 partially uncoated Au surface to facilitate photocatalysis, were synthesized.

294 l to the fields of organic photovoltaics and photocatalysis, where it is necessary to funnel energy o

295 inal ring was achieved through visible light photocatalysis, wherein carbon-carbon bond formation was

296 o enhance the absorption of light and afford photocatalysis with MOFs under visible-light irradiation

297 By integrating photocatalysis with thermal catalysis, we introduce a hi

298 antages of both homogenous and heterogeneous photocatalysis, with the molecular components providing

299 rding plasmon-driven chemistry and nanoscale photocatalysis within optically confined near-field plas

300 ct reaction of arenes and alkyl amines using photocatalysis, without the need for pre-functionalizati