ライフサイエンスコーパス: photocatalysis

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

2 specific case, a clear strategic benefit of photocatalysis.

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

4 ilines with alkynes enabled by visible-light photocatalysis.

5 sustainability of Cu-EDTA treatment via TiO2 photocatalysis.

6 applications in photovoltaics, sensing, and photocatalysis.

7 gy conversion through both photovoltaics and photocatalysis.

8 ed into high charge extraction for efficient photocatalysis.

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

10 cteristic for efficient electron transfer in photocatalysis.

11 ive organic transformations by heterogeneous photocatalysis.

12 rds understanding supramolecular effects and photocatalysis.

13 e of application needs from photovoltaics to photocatalysis.

14 O2 is not an efficient electron scavenger in photocatalysis.

15 y bonded materials relevant for electro- and photocatalysis.

16 erties and hence mechanisms involved in TiO2 photocatalysis.

17 osensitizer in hydrogen-evolving homogeneous photocatalysis.

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

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

20 onic metallic nanostructures in the field of photocatalysis.

21 oxides for applications in photovoltaics and photocatalysis.

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

23 ies, fuel cells, electrochemical sensors and photocatalysis.

24 r splitting by membraneless electrolysis and photocatalysis.

25 ial applications spanning photodetection and photocatalysis.

26 f chemical reactions possible with plasmonic photocatalysis.

27 ment-friendly material for photovoltaics and photocatalysis.

28 xidation reactions for energy conversion and photocatalysis.

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

30 ations in areas as diverse as biosensing and photocatalysis.

31 hotons to be harnessed for photovoltaics and photocatalysis.

32 eptide oxidation induced by titanium dioxide photocatalysis.

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

34 direct relevance for their implementation in photocatalysis.

35 ir formation, thus substantially reinforcing photocatalysis.

36 anistic pathway for thiourea-mediated organo-photocatalysis.

37 es that can be optimised for applications in photocatalysis.

38 idely studied model system for heterogeneous photocatalysis.

39 ible-light water splitting and CO2 reduction photocatalysis.

40 mal metal domain size for the most efficient photocatalysis.

41 hockley-Queisser limit for photovoltaics and photocatalysis.

42 can participate as a sustainable reagent in photocatalysis.

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

44 n laser sources for studying the dynamics of photocatalysis.

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

46 pairs, useful for photocurrent generation or photocatalysis.

47 not compatible with in situ applications in photocatalysis.

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

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

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

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

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

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

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

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

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

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

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

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

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

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

62 njugated building blocks for applications in photocatalysis and optoelectronics.

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

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

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

66 Photocatalysis and photovoltaics are two of the most imp

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

92 Semiconductor photocatalysis attracts widespread interest in water spl

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

94 Can photocatalysis be performed without electron or energy t

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

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

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

98 Visible light photocatalysis can address these challenges, as reflecte

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

100 Time-dependent photocatalysis degradation of the polycyclic aromatic hy

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

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

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

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

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

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

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

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

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

110 The application of photocatalysis enhancement to calibration of fluorescenc

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

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

113 Photocatalysis experiments with this modified flavodoxin

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

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

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

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

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

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

120 Heterogeneous photocatalysis has become a comprehensively studied area

121 Photocatalysis has been invariably considered as an unse

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

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

124 Photocatalysis has not found widespread industrial adopt

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

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

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

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

129 The role of photocatalysis in such lignin depolymerizations is quest

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

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

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

133 2 complexes that participate in HX-splitting photocatalysis in which metal-metal cooperation is credi

134 Photocatalysis, in which solar photons are used to drive

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

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

137 Photocatalysis is also an essential route for the degrad

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

159 catalysis including heterogeneous catalysis, photocatalysis, photoelectrocatalysis and electrocatalys

160 H2 photocatalysis proceeds even under aerobic conditions fo

161 In general, photocatalysis provided higher yields and better selecti

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

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

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

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

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

167 The anaerobic photocatalysis strategy offers a range of synthetic poss

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

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

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

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

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

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

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

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

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

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

178 Transition metal photocatalysis thus represents a promising strategy towa

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

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

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

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

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

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

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

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

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

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

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

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

191 Its photocatalysis was observed under different atmospheres,

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

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

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

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

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

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