ライフサイエンスコーパス: light-absorbing

1 re highly viscous, spherical, amorphous, and light absorbing.

2 This equilibrium is governed by the light-absorbing 11-cis-retinylidene chromophore of visua

3 We demonstrate the formation of light-absorbing (290 < lambda < 700 nm) SOA constituents

4 lack carbon (BC) aerosols, with their strong light-absorbing ability, are major drivers of the global

5 ht-absorbing ground state (Pr) and a far-red light-absorbing active state (Pfr).

6 was 1.2 +/- 0.8, suggesting that most of the light absorbing aerosol measured was black carbon and th

7 ent and high-powered lasers that can degrade light-absorbing aerosol.

8 produced carbonaceous particles are the main light-absorbing aerosols; thus, quantifying their optica

9 e quantification of the radiative impacts of light absorbing ambient black carbon (BC) particles stro

10 assifying and quantifying different types of light-absorbing ambient particles.

11 contains a high surface area with a visible light-absorbing and adaptive "built-in" solid-state liga

12 , nanoparticle oxide semiconductors with the light-absorbing and catalytic properties of designed chr

13 iation and integration together with visible light-absorbing and electron-accepting perylene diimides

14 molecular and nanoscopic scale with specific light-absorbing and light-emitting properties.

15 They consist of a mixture of light-absorbing and light-scattering aerosols and theref

16 sing Cremophor EL in water and evaluated for light-absorbing and optoacoustic contrast-generating pro

17 Second, particles with light-absorbing and/or light-scattering behavior are ide

18 We use light-absorbing anionic particles adsorbed at the air/wa

19 ture and functionality of the chlorosome-the light-absorbing antenna complex-in response to environme

20 tion sphere and/or add other features, e.g., light-absorbing antennas and groups for bioconjugation.

21 A visible light absorbing anthraquinone derivative 1-tosyloxy-2-me

22 ms the potential of oxy aromatics to produce light-absorbing aqueous secondary organic aerosols in th

23 ires are an increasingly important source of light-absorbing atmospheric organic carbon ("brown carbo

24 tivatable photoswitch that consists of a red light-absorbing bacterial phytochrome incorporating a ma

25 nalities and the natural availability of the light-absorbing biliverdin chromophore in animal tissues

26 Retinal is the light-absorbing biochromophore responsible for the activ

27 missions are unknown(1,3), as are effects on light-absorbing black carbon aerosol concentrations over

28 ber, this change results in emission of more light-absorbing (black) particles.

29 eration boron-methylated green-light and red-light-absorbing BODIPY photocages.

30 that mixtures of recently developed visible light-absorbing BODIPY-derived photoremovable protecting

31 , little is known regarding the influence of light absorbing brown carbon (BrC) on the radiative bala

32 rosol growth and are forming constituents of light absorbing brown carbon.

33 produces secondary organic aerosol (SOA) and light-absorbing brown carbon (BrC) via multiple reaction

34 s widely found in tropospheric aerosols with light-absorbing brown carbon.

35 oidance response (SAR) are different under a light-absorbing canopy and during neighbor detection whe

36 ffective photoactive component with enhanced light-absorbing capabilities.

37 n photovoltaics (PVs) owing to its efficient light-absorbing capability, earth-abundant, nontoxic con

38 ad the highest emission factors of PM2.5 and light absorbing carbon, while improved Vertical Shaft an

39 the lowest emitting kilns in PM2.5, CO, and light absorbing carbon.

40 hence is identical to the mass of the total light-absorbing carbon deposited on the filter tape.

41 e document recent developments of low-energy light-absorbing catalysts and their cognate photochemica

42 genetic experiments in combination with blue light absorbing cation conducting ChRs.

43 e steady and homogeneous distribution of the light-absorbing centres and a stable thylakoid membrane

44 n changes the SCZY film refractive index and light absorbing characteristics that in turn shifts the

45 The light-absorbing chemical components of atmospheric organ

46 We report on a visible-light-absorbing chiral molecular triangle composed of th

47 The light absorbing chromophore in opsin visual pigments is

48 hotoconversion, a property that requires the light-absorbing chromophore biliverdin.

49 The light-absorbing chromophore in most opsins is 11-cis-ret

50 strate that Ppr covalently attaches the blue light-absorbing chromophore p-hydroxycinnamic acid and t

51 regulated in green light, attaches the green light-absorbing chromophore phycoerythrobilin to cystein

52 replacement of three molecules of the green light-absorbing chromophore phycoerythrobilin with an eq

53 obilin with an equivalent number of the blue light-absorbing chromophore phycourobilin when cells are

54 ntly developed via isomerization of its blue-light-absorbing chromophore.

55 ucleotides are used to conjugate SWCNTs with light-absorbing chromophores for transparent films which

56 nic activities and may be capable of forming light-absorbing chromophores or posing harm to human hea

57 own carbon aerosol in the atmosphere contain light-absorbing chromophores that influence the optical

58 ng season in Santa Cruz, Bolivia, we studied light absorbing (chromophoric) organic or "brown" carbon

59 ) and phenyl trans-styryl sulfone by visible-light-absorbing colloidal CdS quantum dots (QDs), withou

60 lar approach to HBr splitting with a visible light absorbing complex capable of aqueous Br(-) oxidati

61 estigate the chemical composition of organic light-absorbing components, also known as brown carbon (

62 molecules have been proposed as a source of light absorbing compounds that have been observed in num

63 tween glyoxal and ammonium cations producing light-absorbing compounds such as imidazole derivatives.

64 It uses light-absorbing compounds, photosensitizers (PSs), to ge

65 far-red absorbing phytochromes and blue/UV-A light absorbing cryptochromes.

66 d light-absorbing phytochromes and UV-A/blue light-absorbing cryptochromes regulate seedling de-etiol

67 d light-absorbing phytochromes and blue/UV-A light-absorbing cryptochromes.

68 d-light-absorbing phytochromes and blue/UV-A-light-absorbing cryptochromes.

69 Solution NMR structures of the blue light-absorbing dark state Pb and green light-absorbing

70 ot require exogenous catalyst as the visible light absorbing deprotonated product - with potent excit

71 A novel visible-light-absorbing dilute alloy, Ga(Sbx)N1-x is synthesized

72 idely used as optical sensors, whereas other light-absorbing domains have been used for optical contr

73 Results indicate that deposited light absorbing dust and carbonaceous particles (both BC

74 Polymeric microcapsules with a light-absorbing dye incorporated in their shell can gene

75 ntegrated a stiffness-tunable polymer into a light-absorbing elastomer, near-infra-red light-emitting

76 hemical water-splitting devices, whereby two light absorbing electrodes targeting separate portions o

77 state electron acceptors in the presence of light-absorbing electron donors such as porphyrins and p

78 The light-absorbing enhancement is not as significant with e

79 ation of FAD(*-) to form the long-lived, red-light absorbing FADH(*) species.

80 We have devised photomasks in which the light-absorbing features are made of fluids.

81 Cryptochromes are widespread blue-light absorbing flavoproteins with important signaling r

82 d light absorbing species, Pr, and a far-red light absorbing form, Pfr.

83 The far-red light-absorbing form of phytochrome (Pfr) A stimulates N

84 ed light-absorbing form, Pr, and the far-red-light-absorbing form, Pfr.

85 ight triggers the conversion between the red light-absorbing form, Pr, and the far-red-light-absorbin

86 le intermediates, L, M(1) and M(2), and a UV light-absorbing form, typical of bacteriorhodopsin-like

87 d photoconvert between stable blue and green light-absorbing forms Pb and Pg, respectively.

88 tive laser killing of bacteria targeted with light-absorbing gold nanoparticles conjugated with speci

89 perception by photoconverting between a red-light-absorbing ground state (Pr) and a far-red light-ab

90 anisms through photoconversion between a red light-absorbing ground state Pr, and a far-red light-abs

91 r ability to photointerconvert between a red-light-absorbing, ground state (Pr) and a far-red-light-a

92 n emissions from nearby regions, were weakly light absorbing, highlighting the possibility of photobl

93 ited in snowpacks on the lake's ice acted as light-absorbing impurities (LAIs), reducing surface refl

94 Mean albedo reductions due to light-absorbing impurities were 0.0150, 0.0160, and 0.00

95 ical profiles of black carbon (BC) and other light-absorbing impurities were measured in seasonal sno

96 and decreased snow albedo from deposition of light-absorbing impurities.

97 otoswitches reversibly switch from a visible light absorbing isomer to a visible light transparent is

98 econd integrating sphere and used for LII of light-absorbing kerosene lamp soot.

99 provides specific environment for blue-green light absorbing keto-carotenoids, which excitation cause

100 eterostructures across various semiconductor light-absorbing layers, including traditional photovolta

101 sses a unique combination of domains: a blue-light-absorbing LOV (Light, Oxygen, or Voltage) domain a

102 )) perovskite has shown great potential as a light absorbing material for solar cell applications.

103 s, CQDs are shown to be a highly sustainable light-absorbing material for photocatalytic schemes, whi

104 ared photodetectors with lead sulfide NPs as light absorbing materials have also been demonstrated.

105 tigated the formation of organo-nitrogen and light absorbing materials in evaporating droplets contai

106 ne a promising class of stable and efficient light-absorbing materials for solid-state photovoltaics

107 Sensitizing TiO2 surfaces with visible light-absorbing materials has been utilized in photovolt

108 ile new route to precision architectures for light-absorbing materials including solar energy harvest

109 Among the most attractive light-absorbing materials, halide perovskites have been

110 hotoconverted by UV light into a stable blue light-absorbing meta state Rh-Bl (lambda(max) = 490 nm).

111 r the early intra-cell distortion around the light absorbing metal dimer and the long range deformati

112 terogeneous catalysis has relied upon weakly light-absorbing metals such as Pd, Pt, Ru, or Rh to lowe

113 selective cell targeting based on the use of light-absorbing microparticles and nanoparticles that ar

114 We hypothesized that light-absorbing microparticles could be delivered into s

115 multichromophoric molecules having a visible-light-absorbing MLCT component coupled to a ligand with

116 ole, wherein the incorporation of chiral and light-absorbing moieties imparts piezo- and phototronic

117 rt lifetimes because of decomposition of the light-absorbing molecule.

118 The concentration of these light absorbing molecules is abruptly set to a new level

119 d by the capture of sunlight by a network of light-absorbing molecules (chromophores), which are also

120 able of detecting structural deformations of light-absorbing molecules embedded in chromophoric prote

121 r organic solar cells to be competitive, the light-absorbing molecules should simultaneously satisfy

122 photovoltaic cells (OPV), relying on organic light-absorbing molecules, also contain a variety of met

123 ular dynamics simulations identified a novel light-absorbing monomer esterified from clinically appro

124 These cells were composed of a light absorbing n-doped monocrystalline silicon wafer co

125 Here, we show the use of broadband light-absorbing nanoparticles as solar photothermal heat

126 e its prevalence, the photothermal effect in light-absorbing nanoparticles has typically been assesse

127 However, the unwanted aggregation of the light-absorbing nanoparticles in the LCE matrix will lim

128 pper perovskite structure based on a visible-light-absorbing naphthalene-iminoimide cation (NDI-DAE).

129 by radical shift and NO(2) addition leads to light-absorbing nitroaromatic products.

130 Ox/VOCs ratio, which favors the formation of light-absorbing nitroaromatics.

131 reactions to yield nonvolatile oligomers and light-absorbing nitrogen heterocycles/heterochains (in t

132 t step toward understanding the formation of light-absorbing OA (brown carbon) in the atmosphere.

133 Similar light-absorbing oligomers were identified in fine aeroso

134 pH favors the near-UV pigment and is a novel light-absorbing opsin in the vertebrate eye.

135 (RPE) and Muller cells contain a blue and UV light-absorbing opsin, the RPE retinal G protein-coupled

136 The application of organoboron compounds as light-absorbing or light-emitting species in areas as re

137 le surfaces, that include black carbon (BC), light absorbing organic carbon (brown carbon, BrC), and

138 red was black carbon and the contribution of light absorbing organic carbon was small.

139 BB)-derived carbonaceous aerosols, including light-absorbing organic (brown) carbon (BrC).

140 ical composition, and spectral properties of light-absorbing organic aerosol extracts (i.e., brown ca

141 Black carbon (BC) and light-absorbing organic carbon (brown carbon, BrC) play

142 Light-absorbing organic carbon (OC), also termed brown c

143 n fingerprinting here clearly indicates that light-absorbing organic carbon in winter Beijing, the ca

144 Light-absorbing organic material, or "brown carbon" (BrC

145 potential components of poorly characterized light-absorbing organic matter ("brown carbon") which ca

146 uch reactions are often catalysed by visible-light-absorbing organic molecules or transition-metal co

147 ore adopts a similar conformation to the red-light-absorbing P r form of phytochrome.

148 By coupling a light absorbing particle to a fluid droplet we produce a

149 to contain relatively high concentrations of light absorbing particles that could potentially discolo

150 drifts of light and dark snow (enriched with light absorbing particles, LAPs) facilitate the study of

151 When light-absorbing particles (LAP) darken the snow/ice surf

152 Light-absorbing particles (LAP) deposited on seasonal sn

153 Hence, accounting for changes in light-absorbing particles deposition is required to impr

154 s-wave vortex beam that traps and transports light-absorbing particles in mid-air.

155 e photonic multilayer, a disordered array of light-absorbing particles provides contrast for the blue

156 , the results suggest that the deposition of light absorbing particulate matter in regions of high ae

157 3)) and roadside measurements of ultraviolet light-absorbing particulate matter (UVPM) in comparison

158 reversible photoconversion between the blue light-absorbing Pb and green light-absorbing Pg states,

159 red light-absorbing Pr conformer and far red light-absorbing Pfr conformer.

160 IF7, interacts specifically with the far-red light-absorbing Pfr form of phyB through a conserved dom

161 a red light-absorbing Pr form, and a far red light-absorbing Pfr form.

162 romotes the photoconversion to their far-red light-absorbing Pfr state or the red light-absorbing Pr

163 ght-absorbing Pr state and an active far-red light-absorbing Pfr state.

164 a red-light-absorbing Pr state and a far-red light-absorbing Pfr state.

165 n between red-light-absorbing Pr and far-red light-absorbing Pfr states.

166 light-absorbing Pr ground state, the far-red light-absorbing Pfr-form is the thermally stable ground

167 ed light-absorbing (Pr) form and the far-red light-absorbing (Pfr) form is the central feature that a

168 isms via red light-absorbing (Pr)-to-far-red light-absorbing (Pfr) reversible photoconversion.

169 sion of red light-absorbing (Pr) and far-red light-absorbing (Pfr) states.

170 nversion between red light- (Pr) and far-red light-absorbing (Pfr) states.

171 etween the blue light-absorbing Pb and green light-absorbing Pg states, as well as thermal reversion

172 hotochemistry demands high-potential visible-light-absorbing photo-oxidants.

173 ght-absorbing ground state Pr, and a far-red light-absorbing photoactivated state Pfr.

174 blue light-absorbing dark state Pb and green light-absorbing photoactivated state Pg, combined with p

175 t-absorbing, ground state (Pr) and a far-red-light-absorbing, photoactivated state (Pfr).

176 idyl)porphyrin); M = Zn and H(2)) serving as light-absorbing photoactive materials are utilized.

177 photocatalyzed processes induced by visible light absorbing photocatalysts.

178 on of at least four spectrally distinct blue light-absorbing photocycle intermediates, L, M(1) and M(

179 The red/far red light absorbing photoreceptor phytochrome-B (phyB) cycle

180 photomorphogenesis directed by the red/blue light absorbing photoreceptors phytochrome and cryptochr

181 n atom transfer (HAT) mediator, along with a light-absorbing photoredox catalyst, has proved to be a

182 exhibits outstanding stability as a visible-light-absorbing photosensitizer in hydrogen-evolving hom

183 By introducing a red light-absorbing photosensitizer to this perylene system,

184 The red- and far-red-light-absorbing photosensory pigments or phytochromes (p

185 blue light response is mediated by blue/UV A light-absorbing phototropins (phots) and cryptochromes (

186 PEII), each binding two chromophores, green-light absorbing phycoerythrobilin and blue-light absorbi

187 ptimize the ratio of two chromophores, green-light-absorbing phycoerythrobilin (PEB) and blue-light-a

188 n-light absorbing phycoerythrobilin and blue-light absorbing phycourobilin.

189 t-absorbing phycoerythrobilin (PEB) and blue-light-absorbing phycourobilin (PUB), within their light-

190 erythrobilin and isomerizes it into the blue light-absorbing phycourobilin at the same site in blue l

191 change prevents a red light-induced far-red light absorbing phytochrome chromophore configuration.

192 Photoreceptors, especially the far-red light-absorbing phytochrome A, play a crucial role in ea

193 Red/far-red light-absorbing phytochromes (phys) also play a role in

194 The red/far-red light-absorbing phytochromes (phys) modulate these aspec

195 otomorphogenesis is regulated by red/far-red light-absorbing phytochromes and blue/UV-A light-absorbi

196 omorphogenic development include red/far-red-light-absorbing phytochromes and blue/UV-A-light-absorbi

197 The red and far-red light-absorbing phytochromes and UV-A/blue light-absorbi

198 The red and far-red light-absorbing phytochromes interact with the circadian

199 luate the effects of a papain-gel with a red-light absorbing pigment (methylene blue - MB) to mediate

200 introduction of a chlorophyll metabolite, a light-absorbing pigment widely consumed in human diets,

201 d and forms with all-trans retinal a visible light-absorbing pigment with a 534 nm absorption maximum

202 s in energy flow by regulating the amount of light-absorbing pigments and the size of the chlorosomes

203 ic acids, as well as ultraviolet and visible light-absorbing pigments, such as hydroxycinnamate ester

204 In the present study, the red-light absorbing platinum(II) tetraphenyltetrabenzoporphy

205 nts through photointerconversion between red-light-absorbing Pr and far-red light-absorbing Pfr state

206 nversion between the spectrally distinct red light-absorbing Pr conformer and far red light-absorbing

207 oconversion between two stable states, a red light-absorbing Pr form, and a far red light-absorbing P

208 o prototypical phytochromes that adopt a red-light-absorbing Pr ground state, the far-red light-absor

209 hotocycle between two distinct states: a red-light-absorbing Pr state and a far-red light-absorbing P

210 rconvert between a biologically inactive red light-absorbing Pr state and an active far-red light-abs

211 far-red light-absorbing Pfr state or the red light-absorbing Pr state, respectively.

212 icroorganisms through interconversion of red light-absorbing (Pr) and far-red light-absorbing (Pfr) s

213 Photointerconversion between the red light-absorbing (Pr) form and the far-red light-absorbin

214 We report that in the red light-absorbing (Pr) state, the bilin chromophore of the

215 wide range of biological mechanisms via red light-absorbing (Pr)-to-far-red light-absorbing (Pfr) re

216 We review available measurements of the light-absorbing primary OA (POA), and quantify the wavel

217 ar manipulation of Ca(++) by illumination of light-absorbing probe molecules such as channelrhodopsin

218 In bulk aqueous solutions, UV- and visible-light-absorbing products are observed at pH 3-4 and 5-6,

219 ion, methylglyoxal and glyoxal produced more light-absorbing products in reactions with a 5:1 AS-glyc

220 d on elemental/mineralogical analysis and/or light-absorbing properties is challenging.

221 Our results suggest that the overall light-absorbing properties of SOA may be determined by t

222 species that are most likely responsible for light-absorbing properties of the aged LSOA.

223 certain due to a lack of measurements of its light-absorbing properties, such as mass absorption effi

224 Phycoerythrin (PE) is a green light-absorbing protein present in the light-harvesting

225 e of connecting the amino acid sequence of a light-absorbing protein with its fluorescence brightness

226 the rules controlling the spectral tuning of light absorbing proteins is limited.

227 Ultrafast processes in light-absorbing proteins have been implicated in the pri

228 Cryptochromes (CRYs) are blue-light-absorbing proteins involved in a variety of biolog

229 The bacterial green-light absorbing proton pump proteorhodopsin (GPR) has em

230 The most-light-absorbing pyrolysis oily phase (PO) was aerosolize

231 he light gradient is dependent solely on the light-absorbing qualities of the stain used.

232 zsch ester (HE) anion serving as the visible-light-absorbing reagent and electron and hydrogen atom d

233 Phytochromes are red/far-red light-absorbing receptors encoded by a gene family of fi

234 anion complex after electron transfer from a light-absorbing redox-active compound.

235 N-terminus of ZTL, which contains the novel, light-absorbing region of ZTL (the LOV domain), transien

236 hodopsin (NeoR) that is paired with a visual light-absorbing rhodopsin responsible for enzyme activat

237 hod to transfer cocaine continuously from IR-light-absorbing saliva to an IR-transparent solvent (tet

238 tra of the solutions due to the formation of light absorbing secondary organics and colloidal organic

239 Here, we introduce near-infrared light absorbing semiconducting polymer nanoparticles as

240 s in solar cells without direct etching in a light absorbing semiconductor?

241 ategy for accessing lanthanide-doped visible-light-absorbing semiconductor nanocrystals by demonstrat

242 roduction catalysts are grafted to a visible-light-absorbing semiconductor.

243 e integration of electrocatalysts (ECs) with light-absorbing semiconductors (SCs), but the energetics

244 molecular catalysts interfaced with visible-light-absorbing semiconductors.

245 Light-absorbing soot in snow has been decreasing in past

246 refractive indices are similar to those for light absorbing species isolated from urban aerosol.

247 aporating glyoxal-(NH4)2SO4 droplets produce light absorbing species on a time scale of seconds, whic

248 otochromically interconvertible forms, a red light absorbing species, Pr, and a far-red light absorbi

249 nes were evaluated for their ability to form light-absorbing species in aqueous aerosol.

250 ges of the full-length BphP dimer in the red light-absorbing state and the photoactivated far-red lig

251 yfluorescein and persist in an open, visible light-absorbing state even at low pH and in low dielectr

252 bilin-binding pocket in the dark-adapted red light-absorbing state illuminated the intricate network

253 elping stabilize and destabilize the far-red-light-absorbing state of Phy (Pfr), respectively.

254 coccus OS-B' cyanobacterial Phy 1 in the red-light-absorbing state of Phy (Pr) revealed that PCB is b

255 sorbing state and the photoactivated far-red light-absorbing state revealed a large scale reorientati

256 onversion between red (Pr) and far-red (Pfr) light-absorbing states, whereas RpBphP3 exhibits novel p

257 onversion between red (Pr) and far-red (Pfr) light-absorbing states.

258 onversion between red (Pr) and far-red (Pfr) light-absorbing states.

259 toconversion between Pr and a near-red (Pnr) light-absorbing states.

260 tochromes between red (Pr) and far red (Pfr) light-absorbing states.

261 omass towards the underground parts to limit light-absorbing surface area, which was confirmed by thi

262 flattened 'disc' membranes that provide vast light-absorbing surfaces.

263 etween phenylacetylene and thiophenol as the light-absorbing system to obviate the requirement of an

264 We apply this algorithm to C(12)H(12)O(7), a light-absorbing "test case" molecule identified in chamb

265 This method enables the selective heating of light-absorbing thin films on low-temperature substrates

266 re formed from a periodic arrangement of the light-absorbing thylakoid tissue itself.

267 mportant step in photocatalytic processes in light-absorbing Ti/O-based clusters, metal-organic frame

268 We report that visible light absorbing transition metal complexes enable the [2

269 has begun to leverage the ability of visible light-absorbing transition metal complexes to catalyze a

270 oelectrochemical activity than other visible light-absorbing transition metal oxides.

271 kov hydrothiolation of olefins using visible-light-absorbing transition metal photocatalysts.

272 dual-catalyst system consisting of a visible light-absorbing transition-metal photocatalyst and a ste

273 expansion of the opsin gene family encoding light-absorbing visual pigments.

274 This type of UV detectors have light absorbing zinc oxide nanoparticles (NPs) sandwiche

275 Earth-abundant, visible light absorbing zirconium photosensitizers are of great

276 report an air- and moisture-stable, visible light-absorbing Zr(IV) photosensitizer, Zr((Mes)PDP(Ph))