ライフサイエンスコーパス: visible light

1 [Ru(bpy)3](PF6)2 (2a), that are activated by visible light.

2 ction is greatly increased by exposure to UV-visible light.

3 ependent cytotoxicity after irradiation with visible light.

4 size must be comparable to the wavelength of visible light.

5 maximum rate of 2647 mumol h(-1) g(-1) under visible light.

6 A)-capped CdSe quantum dot (MPA-CdSe QD) and visible light.

7 tate in which the device acts as a window to visible light.

8 es for MO photodegradation using BiOBr under visible light.

9 urs when the substrate is exposed to air and visible light.

10 near-UV wavelengths and, to a lesser extent, visible light.

11 (in cyclohexane) rotation can be induced by visible light.

12 t rivals TiO2, but is much more active under visible light.

13 s) that can convert near-infrared light into visible light.

14 x 1, as a photosensitizer, which works under visible light.

15 ions of certain alkanes upon activation with visible light.

16 unravelled by the attached quencher to emit visible light.

17 ell loss when animals are exposed to intense visible light.

18 s the resolution to petahertz frequencies of visible light.

19 at ambient temperature in glass tubes using visible light.

20 erein a cationic polymerization regulated by visible light.

21 ical and spectroscopic techniques exploiting visible light.

22 oxygen and NADP(+) reduction into NADPH with visible light.

23 into an active fluorinating species by using visible light.

24 notably produce reactive oxygen species with visible light.

25 t of material (1.6 mg l(-1)) under simulated visible light.

26 ana-bond can be destabilized and split using visible light.

27 shown to be able to generate hydrogen under visible light.

28 etect a single photon (10(-18)-10(-19) J) of visible light.

29 ds as caging groups that can be removed with visible light.

30 H2 and clean water under both UV-visible and visible light.

31 tral dithienylethene via irradiation with UV/visible light.

32 ditions were achieved under irradiation with visible light.

33 able the color switching of redox dyes using visible light.

34 oss sections of related photocages absorbing visible light.

35 ibly produced and measured with infrared and visible light.

36 nconventional dissociation of S-S bond under visible light.

37 table for light modulation from terahertz to visible light.

38 ates reached by absorption of ultraviolet or visible light.

39 otocatalyst Rose Bengal under irradiation of visible light.

40 n dioxide conversion to carbon monoxide with visible light.

41 absorption of ZnO nanofibers in the range of visible-light.

42 irradiation with broad spectrum ultraviolet-visible light (320-500 nm) transforms the films from fla

43 ce measurements showed strong attenuation of visible light (400-700 nm), where only approximately 1%

44 Upon visible-light (500 nm) irradiation, such hybrids enable

45 lly stable dye fluoresces in the red part of visible light (601 and 578 nm, acid and basic forms, res

46 The UV/visible light absorbance of the Ni-only catalyst depends

47 lization of dye 3 to afford a pair of strong visible-light absorbers was also demonstrated.

48 a molecular approach to HBr splitting with a visible light absorbing complex capable of aqueous Br(-)

49 ds or in photocatalyzed processes induced by visible light absorbing photocatalysts.

50 Sensitizing TiO2 surfaces with visible light-absorbing materials has been utilized in p

51 xycinnamic acids, as well as ultraviolet and visible light-absorbing pigments, such as hydroxycinnama

52 e (PhPyr) and phenyl trans-styryl sulfone by visible-light-absorbing colloidal CdS quantum dots (QDs)

53 enging photochemistry demands high-potential visible-light-absorbing photo-oxidants.

54 new strategy for accessing lanthanide-doped visible-light-absorbing semiconductor nanocrystals by de

55 mbination, accounted for 50-80% of the total visible light absorption (>400 nm) by solvent extractabl

56 excited state ((5)MLCT) can be accessed via visible light absorption and that the thermalized (5,7)M

57 Contrary to earlier reports, the visible light absorption at 1.8 eV ( approximately 688 n

58 e highly promising PDT agents due to intense visible light absorption, yet the majority are toxic eve

59 talysts on g-C3N4 significantly enhances the visible-light absorption, rendering them ideal for visib

60 vskites have large bandgaps that afford weak visible-light absorption.

61 Irradiation with visible light accelerates the shape reversion.

62 cus aureus), resulting from a combination of visible light activated (VLA) photocatalysis and copper

63 Visible light-activated TiO2 could be prepared from meta

64 carboxylic esters are used as substrates for visible-light-activated asymmetric alpha-amination and a

65 Using visible-light-activated catalysts in conjunction with an

66 Visible-light-activated photoredox catalysts provide syn

67 Herein, we show that visible-light-activated transition-metal complexes can b

68 a new dearomatization process that involves visible-light activation of small heteroatom-containing

69 d secondary alkyl iodides in the presence of visible light and a copper catalyst.

70 sponding tertiary alcohol upon activation by visible light and an Ir(III) photoredox catalyst.

71 rrow the band gap to potentially make use of visible light and decrease the recombination of excitons

72 materials become good absorbers/emitters for visible light and good reflectors for IR light, which ar

73 ly high singlet oxygen production under both visible light and infrared light excitations.

74 photoacid dyes to sensitize the membranes to visible light and initiate proton transport.

75 ls and then releasing CO when triggered with visible light and O2.

76 eserve their capability to generate NO under visible light and possess overall sigma receptor nanomol

77 h faster inactivation of bacteria under both visible light and sunlight illumination compared with th

78 carcinoma cells (HT-29) under the control of visible light and the extent of CO-induced apoptotic dea

79 nal gold-graphene oxide (Au@GO) flakes under visible light and the potential of the resulting materia

80 chococcus elongatus are excited by polarized visible light and the transient absorption is probed wit

81 st in the presence of molecular oxygen using visible light and, when it was used in the reaction of a

82 manipulation of spectral transparency in the visible-light and infrared regions, revealing a dual-ban

83 lls upon brief irradiation with low doses of visible light, and potent at sub-micromolar doses toward

84 can be used to harvest the whole spectrum of visible light ( approximately 50% of solar energy) and a

85 es a wide range of substrates on exposure to visible light are described.

86 processes driven by nonthermal energy (e.g., visible light) are attractive for future approaches to e

87 ms charge-transfer excitons upon exposure to visible light as indicated by absorbance and fluorescenc

88 ster derivative of the carboxylic acid under visible light at room temperature in the presence of the

89 Here, the authors developed a visible light-based in vivo pH mapping method by couplin

90 inkable gelatin, which was then subjected to visible light-based projection stereolithographic printi

91 Infrared and visible light beams carrying orbital angular momentum (O

92 -infrared human body radiation but opaque to visible light because of the pore size distribution (50

93 rmed by viewing the developed mini-column at visible light by naked eye; where MG was seen as compact

94 to its dicationic form, bis-spiropyran(2+), visible light can be used instead of UV light to switch

95 atalytic activity of Ti(3+)-doped TiO2 under visible-light can be tuned.

96 nctionalization of trifluoromethylarenes via visible-light catalysis merged with Lewis acid activatio

97 This synopsis focuses on visible-light catalysis, a recent and very promising tec

98 +2] cycloaddition reaction of styrenes under visible-light catalysis.

99 halimidoyl oxalate, which in the presence of visible-light, catalytic Ru(bpy)3(PF6)2, and a reductant

100 s as efficient and stable photocatalysts for visible light CO2 reduction.

101 In recent years, visible light communication (VLC) technology has attract

102 that was photoreduced by irradiation with UV-visible light compared to the dark reaction; photochemic

103 will help accelerate future developments in visible-light-dependent chemistry.

104 Illumination with visible light disassembles these nanoflasks, releasing t

105 istor architecture for detecting ultraviolet-visible light down to 100 fW cm(-2) at room temperature

106 tuted allylarenes has been carried out under visible light driven conditions.

107 The visible-light driven cyclometalation of arene substrates

108 p-Si|TiO2 |hydrogenase photocathode displays visible-light driven production of H2 at an energy-stori

109 were coupled with alpha-azidochalcones using visible-light driven Ru(bpy)3(PF6)2 catalyzed photocasca

110 ssembly able to achieve photoelectrochemical visible light-driven H2 evolution in mildly acidic aqueo

111 A mechanistic study of visible light-driven H2 production from [Cp*Ir(bpy)H](+)

112 We demonstrate the visible light-driven rapid degradation of microcystin-LR

113 In this work, we demonstrate selective visible-light-driven CO2 reduction in water using a synt

114 d a CoOx/TaON photoanode showed activity for visible-light-driven CO2 reduction using water as a redu

115 multi-electron transfer to enable efficient visible-light-driven hydrogen evolution reaction (HER) w

116 A visible-light-driven Minisci protocol that employs an in

117 Visible-light-driven oxygen production by an organic chr

118 Visible-light-driven photochemistry has continued to att

119 Herein, we have developed a sulfite-enhanced visible-light-driven photodegradation process using BiOB

120 Herein, for the first time a visible-light-driven photoelectrochemical (PEC) aptasens

121 This mild, visible-light-driven protocol allows direct access to me

122 conductor TiO2 strongly enhances the rate of visible-light-driven reduction of CO2 to CO in dimethylf

123 organic dyes have been investigated here for visible-light-driven water oxidation.

124 Here, we report the observation of bright visible light emission from electrically biased suspende

125 Visible light emission was observed for molecular juncti

126 arly imprinted polymers (MIPs), by using the visible light emitted from QDs excited by UV light.

127 conditions, the reaction was performed with visible light employing 10 mol % of thioxanthone as trip

128 l catalysis can similarly be controlled with visible light energy.

129 corresponding highly reactive radicals, and visible light excitable photocatalysts can provide the r

130 sitization is achieved with a broad range of visible light excitation (400-600 nm).

131 materials can activate the N2 molecule upon visible light excitation, which can be reduced all of th

132 molecular proxy catalyst after low-intensity visible-light excitation of co-anchored molecular Ru(II)

133 The visible-light-exposed particles show different chemical

134 tion of individual signaling complexes using visible light extremely difficult.

135 An iridium photocatalyst and visible light facilitate a room temperature, nickel-cata

136 complex processes, fluorescent labeling with visible light fluorescent proteins such as GFP and RFP s

137 mized to reflect infrared light and transmit visible light for a wide range of angles could become a

138 will by varying the irradiation conditions (visible light for the former and UVA light for the latte

139 nditions, which highlights the importance of visible light for this transformation.

140 evelopment of new materials that can harvest visible light for water disinfection, and so speed up so

141 ticle-coated lenses that convert UV light to visible light - for improvement of visual system functio

142 ical intermediates is efficiently induced by visible light from alkyl iodides and Pd(0) complexes.

143 n rich and electron poor units facilitates a visible light fusion reaction in >95% yield, whereas the

144 ersion by either heating or irradiation with visible light gated by protonation/deprotonation.

145 on colors using 365 nm excitation, observing visible light (>400 nm) emission.

146 Visible light harvesting may be enhanced in other conjug

147 This active site is photosensitive: visible light has been shown to induce the release of ex

148 are attractive to many applications because visible light has superior penetration and causes far le

149 thiophenol, iridium photoredox catalyst and visible light, have been successfully used in a triple c

150 laser ablation causes water splitting under visible light illumination (532 nm).

151 wettability towards contacting liquids upon visible light illumination due to a photo-induced voltag

152 ,5',2''-ter-3,4-ethylenedioxythiophene under visible light illumination while preserving the quantum

153 e BP, i.e., thickness, lateral dimensions or visible light illumination, have been investigated in de

154 ed electrons to move from Cu2O to SnO2 under visible light illumination, which could then be released

155 lets on our dye-sensitized TiO2 surface upon visible light illumination.

156 Visible-light illumination of the photoacid-modified mem

157 compared to conventional X-ray absorption or visible light imaging.

158 cts with dioxygen upon photoirradiation with visible light in acetonitrile to generate a thiolate-lig

159 photochemical protecting group that absorbs visible light in the violet-blue range.

160 A direct visible light-induced generation of a hybrid aryl Pd-rad

161 The mechanism of visible light-induced hole transfer from a molecular lig

162 The first visible light-induced Pd-catalyzed Heck reaction of alph

163 A general, efficient, and site-selective visible light-induced Pd-catalyzed remote desaturation o

164 We report a visible light-induced trifluoromethylation and perfluoro

165 Zn2NF does indeed exhibit good visible-light-induced hydrogen evolution activity unlike

166 Metal-free, visible light-initiated, living cationic polymerization

167 precursors in combination with a base under visible-light initiation.

168 metal complexes and organic dyes to convert visible light into chemical energy by engaging in single

169 scence imaging is the limited penetration of visible light into tissues and interference associated w

170 acid as a sacrificial electron source under visible light irradiation (520 nm).

171 Some of them were excited by visible light irradiation and emitted fluorescence at th

172 in bacterial population of log10 = 4.2 under visible light irradiation and log10 = 1.8 in darkness ha

173 en achieved, compared with log10 = 1.8 under visible light irradiation and no activity, for a purely

174 Visible light irradiation of the fabrics reduced the ext

175 opic studies support a mechanism where under visible light irradiation the Ir photosensitizer in conj

176 the photocatalytic efficiency of TiO2 under visible light irradiation while hydrogen n-type doping i

177 /phenol, BiOI/MO, and Bi2O3/MO systems under visible light irradiation, as well as in TiO2/MO system

178 In photocatalytic hydrogen generation under visible light irradiation, the presence of MoS2-rGO hybr

179 and heteroarenes under either ultraviolet or visible light irradiation.

180 ned environments by means of ultraviolet and visible light irradiation.

181 otocatalytic property of this material under visible light irradiation.

182 and occur readily at room temperature under visible light irradiation.

183 h(-1) g(-1)) and outstanding stability under visible light irradiation.

184 al enhancement under Ultraviolet-visible (UV-visible) light irradiation that allows the detection of

185 er CH4 (>96.4%) without any cocatalyst under visible-light irradiation (lambda > 420 nm).

186 Visible-light irradiation of 4-p-methoxyphenyl-3-butenyl

187 Under visible-light irradiation, the Au/CdSe NCs with 7.2 nm A

188 Upon visible-light irradiation, typical mono- and multi-subst

189 ction time can effectively generate H2 under visible-light irradiation.

190 ht and afford photocatalysis with MOFs under visible-light irradiation.

191 of N2 to NH3 in water at 25 degrees C under visible-light irradiation.

192 ization of ubiquitous C(sp(3))-H bonds using visible light is a highly challenging yet desirable goal

193 g p-type conductivity, while transparency to visible light is maintained because low-lying d-d transi

194 The ability to drive reactivity using visible light is of importance for many disciplines of c

195 Upon excitation with visible light (lambda > 400 nm) in methanolic solutions,

196 2 (C70-TiO2) hybrid as a photocatalyst under visible light (lambda > 420 nm) irradiation.

197 h or C6F5) can undergo photo-excitation with visible light, leading to a new class of metal-free phot

198 that excitation of d5SICS or dNaM with near-visible light leads to efficient trapping of population

199 torelease CO remotely by low-power broadband visible light (<1mWcm(-2)) with the aid of fiber optics

200 -based light-driven proton pumps that absorb visible light (maxima at 520-540 nm).

201 we were able to develop a further simplified visible light mediated C(sp(2) )-C(sp(3) ) coupling meth

202 A visible light mediated highly selective benzylic C-H bon

203 The initial visible light-mediated activation of a variety of monosu

204 The visible light-mediated C-3 alkoxylation of imidazopyridi

205 Here, we used visible light-mediated stiffening hydrogels to investiga

206 A visible-light-mediated annulation of N-sulfonylallylamin

207 lkynes was achieved at room temperature by a visible-light-mediated copper-catalyzed photoredox proce

208 le arenes has been developed which employs a visible-light-mediated cycloaddition of arenes with an N

209 ive, controlled radical polymerization via a visible-light-mediated photoinduced electron/energy tran

210 Visible-light-mediated photoredox reactions have recentl

211 These mild, visible-light-mediated procedures can be used for remote

212 gen heterocycles can be easily prepared by a visible-light-mediated radical cascade process.

213 strategy to produce discrete oligomers by a visible-light-mediated radical chain process.

214 A visible-light-mediated radical Smiles rearrangement has

215 Here, we explore visible-light-mediated single-electron transfer as a mec

216 Samples were imaged using visible light microscopy fresh, 1-minute and 24-hours po

217 s paper provides a new approach to fabricate visible-light nanocatalysts using both doping and anneal

218 nd low conductivity when treated either with visible light or acid.

219 imited either by the inability to respond to visible light or the need for special treatment to recov

220 ough the degradation of RhB under UV and UV+ visible light over a period of 8 hrs.

221 se of preparation and significantly enhanced visible-light photoactivity of these materials advance f

222 Arylated nucleobases were synthesized by visible light photocatalysis using rhodamine 6G as photo

223 Visible-light photocatalysts are not required for activa

224 of cadmium sulfide quantum dots (CdS QDs) as visible-light photocatalysts for the reduction of nitrob

225 s was catalyzed by Zr(IV)-based MOFs bearing visible-light photocatalysts in the form of Ir(III) poly

226 significant research interest because of its visible light photocatalytic performance combined with g

227 This nanocatalyst exhibits excellent visible-light photocatalytic activity and an apparent qu

228 arge properties and exhibit superior UV- and visible-light photocatalytic activity for ammonia synthe

229 Visible-light photocatalyzed (VLPC) late-stage C-H funct

230 n the PbIn2S4 nanocrystals and sensitized by visible-light photoexcitation of these nanocrystals.

231 res in which a core plasmonic metal harvests visible-light photons can selectively channel that energ

232 Visible light photoredox catalysis enables direct gamma-

233 The emergence of visible light photoredox catalysis has enabled the produ

234 ce in this work was achieved by implementing visible light photoredox catalysis that proved to be app

235 realized a core substituted phenoxazine as a visible light photoredox catalyst that performed superio

236 tivating groups for radical generation under visible light photoredox conditions.

237 The reaction is enabled by visible light photoredox initiated hole catalysis and th

238 A visible light photoredox-catalyzed aldehyde olefin cycli

239 Herein, we report the first visible light photoredox-catalyzed beta-selective reduct

240 Visible light photoredox/nickel dual catalysis has been

241 microfluidic platform for in-flow studies of visible-light photoredox catalysis in liquid or gas-liqu

242 ides with fluorinated sulfones is enabled by visible-light photoredox catalysis.

243 bstituted azoles is reported that involves a visible-light photoredox-catalyzed coupling reaction of

244 lectron-rich pyrrole results in quantitative visible-light photoswitches, as well as photoswitches th

245 ect upon exposure of cells to irradiation by visible light, probably due to formation of electrophili

246 onding alkyl fluorides has been achieved via visible light-promoted photoredox catalysis.

247 Disclosed is a mild, scalable, visible-light-promoted cross-coupling reaction between t

248 functional theory calculations suggest that visible-light-promoted intermolecular charge transfer wi

249 A visible-light-promoted iridium photoredox and nickel dua

250 Visible-light-prompted electron-transfer reaction initia

251 Optical imaging with visible light provides high resolution and sensitivity;

252 to leverage the energy of readily available visible-light radiation to efficiently create some of th

253 S m(-1) and good optical transparency in the visible light range, promising in transparent conductive

254 e-light absorption, rendering them ideal for visible-light reduction of CO2.

255 accepting benzothiadiazole unit extended the visible light response of the obtained poly(9,9-dioctylf

256 report a comparative analysis of the UV and visible light responses of 30 spiropyrans, spiroindolino

257 rtically-aligned 2D layers exhibit excellent visible light responsive photocatalytic activities for e

258 erdisciplinary attention as a metal-free and visible-light-responsive photocatalyst in the arena of s

259 Visible-light-responsive reversible color-switching syst

260 nts also reveal a substantial enhancement in visible-light responsiveness.

261 lo- or organo-compounds capable of absorbing visible light, resulting in an excited state species.

262 In this work, a visible light-sensitive CO-releasing molecule (photoCORM

263 The visible-light sensitized production of (1)O2 is not only

264 roduct, rapid-scan FT-IR spectroscopy of the visible-light-sensitized catalysis, using Ir(ppy)3 in we

265 We present a visible light stimulation method for modulating the firi

266 Visible light stimulation over a 200-fold intensity rang

267 ously transmit the complementary spectrum of visible light that can be efficiently harvested by the p

268 dynamic barrier to isomerization with pH and visible light that resonates with the optical frequency

269 Under irradiation with visible light, the nicotinamide-dependent enzyme known a

270 two types of Si-based metasurfaces to steer visible light to a large deflection angle.

271 A major goal of energy research is to use visible light to cleave water directly, without an appli

272 n-deficient alkyl iodides in the presence of visible light to give boronic esters in which two new C-

273 The collected particles were exposed to visible light to induce the photocatalytic activity of t

274 complex can absorb a significant spectrum of visible light to photocatalyze the chemical transformati

275 initiator efficiencies through activation by visible light to synthesize polymers with tunable molecu

276 ctrum white light, and thereby provide extra visible light to the eye.

277 dS-QD coated glass lenses provide additional visible light to the rod and cone photoreceptor cells, a

278 Using an external stimulus such as visible light to toggle a catalyst between an active and

279 Films with R = 0.6 were semiconducting with visible light transmission due to a direct optical band-

280 t thermochromic properties are observed with visible light transmittance as high as 70.3% and solar m

281 between efficient solar conversion and high visible light transmittance that limits conventional sem

282 Visible-light triggered quinone trimethyl locks are repo

283 the E/Z photoisomerization mechanisms of the visible-light-triggered switch 1,2-dithienyl-1,2-dicyano

284 in Pd complex, as sensitizer, it undergoes a visible light upconversion.

285 the realization of integrated photonics for visible light using high throughput technologies.

286 neurons and generate action potentials with visible light via the optocapacitive effect as previousl

287 dict materials with ideal band positions for visible-light water splitting and CO2 reduction photocat

288 cathode and a small applied bias resulted in visible-light water splitting as shown by direct measure

289 catalytic activities for H2 production under visible light were evaluated by gas chromatograph, and t

290 A strong laser pulse excitation of visible light where the two dye molecules (Ru and Bodipy

291 ve proteins are activated by ultraviolent or visible light, which has limited tissue penetration.

292 diastereoselective manner in solution under visible light, which provides an efficient solution to a

293 ompetitive photocatalytic efficiencies under visible light, which was attributed to interband absorpt

294 y alternating irradiation of ultraviolet and visible light while under the influence of a sustained e

295 photocatalysts for hydrogen evolution using visible light while withstanding harsh chemical environm

296 l agents whose activity can be controlled by visible light, while getting into the therapeutic window

297 er(s) is performed by irradiation with UV or visible light, while the reverse process proceeds therma

298 nd closes quantitatively by irradiation with visible light, while the reverse reaction occurs rapidly

299 core-shell nanoparticles were sensitized to visible light with a new Ru(II) polypyridyl complex that

300 t and receive information and energy through visible light, would enable enhanced user interfaces and