ライフサイエンスコーパス: photophysical

1 Photophysical analysis and simulations reveal a temperat

2 (1)H NMR and photophysical analysis are used to assess the ratio of G

3 The photophysical and biological properties of the new compl

4 pyridine complexes based on their attractive photophysical and biological properties.

5 The compounds were evaluated for their photophysical and chemical properties and PSMA affinity.

6 sults give fresh insight into fine tuning of photophysical and chiroptical properties of Re-NHC syste

7 Detailed X-ray crystallographic, photophysical and computational analyses show that the c

8 Photophysical and DFT studies indicate a light-initiated

9 The proposed process is supported by photophysical and electrochemical data.

10 s-tetrazine have been synthesized, and their photophysical and electrochemical properties are systema

11 phenes to the TAPP core on their structural, photophysical and electrochemical properties has been st

12 Complexation by CDs greatly influences the photophysical and electrochemical properties of COSANs.

13 The photophysical and electrochemical properties of the new

14 and electron-acceptor groups with remarkable photophysical and electrochemical properties were synthe

15 (+) and [Ru(2+), 2Br(-)], each with distinct photophysical and electron-transfer properties.

16 Pentacene's extraordinary photophysical and electronic properties are highly depen

17 Photophysical and interface sensitive measurements revea

18 A mechanistic model based on detailed photophysical and isomerization kinetic studies is provi

19 The photophysical and lasing properties of the benzofuran-fu

20 crocycles are attractive due to their unique photophysical and optoelectronic properties.

21 The rates and outcomes of virtually all photophysical and photochemical processes are determined

22 exploration of the pathway and mechanism of photophysical and photochemical processes.

23 The photophysical and photochemical properties of transition

24 benzene moiety can lead to marked changes in photophysical and photochemical properties, providing an

25 Because of their specific photophysical and photochemical properties, they find ve

26 ly, the stabilization strategy preserves the photophysical and structural characteristics of the nano

27 cation brings about drastic changes in their photophysical and supramolecular properties, highlightin

28 omic compounds and the optimization of their photophysical and switching properties are prerequisites

29 s unusual performance, we conducted detailed photophysical and time-dependent density functional theo

30 nic synthetic methods, and their structural, photophysical, and electronic attributes were disclosed.

31 blies that could find use in a wide range of photophysical applications.

32 scence microscopy (SMFM) experiments exhibit photophysical artifacts that typically necessitate human

33 ansfer characterization by means of advanced photophysical assays.

34 r design possibilities have enabled exciting photophysical attributes including narrower emission spe

35 t solvent environments, and switching of the photophysical behavior between the Lewis acid-base adduc

36 been studied intensively, their green-state photophysical behavior has received less attention.

37 While this photophysical behavior is predicted for a four-photon ab

38 o monomer reference, illustrating the unique photophysical behavior of cagelike photosensitizer.

39 The redox and photophysical behavior of the Eu(III) center and the lig

40 rted to N(tz)ADH, reflecting a complementary photophysical behavior to that of the native NAD(+)/NADH

41 of tub-shaped picenophanes renders distinct photophysical behavior, revealing the potential of harne

42 In particular, heterogeneous photophysical behaviors of these proteins, which cannot

43 hese metallacycles results in their distinct photophysical behaviors.

44 ing of the quantum-mechanical origin of this photophysical behaviour is limited.

45 ng into account solvent-induced spectral and photophysical changes of the labels, leads to deviations

46 Next, photophysical characteristics are presented, setting the

47 Here, we rationally improve the photophysical characteristics of the coral-derived fluor

48 The molecular design strategies, photophysical characteristics, and device performance re

49 The synthesis, electrochemical, and photophysical characterization of N,N'-dialkylated and N

50 For the latter systems, the photophysical characterization of their ground- and exci

51 Photophysical characterization performed in solvents of

52 Photophysical characterization revealed that the 1- and

53 Photophysical characterization showed that SiRA is remar

54 AFIRe), which optically alters ground versus photophysical dark state populations within fluorescent

55 tions were used to help in understanding the photophysical data and the intramolecular charge-transfe

56 We also present photophysical data pertaining to the efficiency of elect

57 Based on photophysical data, their excited-state properties have

58 e N-aryl component proved to be an effective photophysical device as it allows the placement of a PET

59 This study underscores the photophysical diversity of the M-(PM')n-M platform and p

60 ine green, we show the importance of correct photophysical (e.g., spectral and kinetic) information a

61 rm for studying the spatial, structural, and photophysical effects of intermolecular interactions.

62 no-based acceptor TCNE and TCNQ units on the photophysical, electrochemical, and computational studie

63 The effects of multiacceptor units on photophysical, electrochemical, and computational studie

64 Current understanding of the photophysical electron transfer processes present in CD

65 On the basis of photochemical and photophysical experiments and computational studies, we

66 Pc-TCBD-aniline conjugates presents a unique photophysical feature never observed before in SubPc che

67 hybrid electrode architecture, combining the photophysical features of PSI with the biocatalytic prop

68 d duplexes, while always maintaining similar photophysical features.

69 has been hampered by issues of colloidal and photophysical instability.

70 l discusses our efforts in the synthesis and photophysical investigation of rotaxanes and catenanes d

71 Herein, we present the photophysical investigation of Ru(II), Ir(III), and Os(I

72 Preliminary photophysical investigation of the parent compound revea

73 A detailed photophysical investigation of the TPE-naphthyridine sca

74 Photophysical investigations in the solution phase provi

75 ombination of spectral, electrochemical, and photophysical investigations of 2 and 3 reveals that the

76 Consequently, photophysical investigations show that, compared to pare

77 Detailed photophysical investigations showed that as the doping d

78 Photophysical investigations, supported by TD-DFT calcul

79 Based on photophysical investigations, the nature of excited stat

80 resonators are described quantitatively by a photophysical kinetic model and simulations.

81 Detailed temperature-dependent photophysical measurements (5-325 K) were carried out to

82 Based on electrochemical and photophysical measurements, when a polarizable 2,5-thien

83 osal that suppression of Kasha's rule is the photophysical mechanism responsible for emission in both

84 In particular, the photophysical mechanisms leading to near-UV excitation a

85 lar interactions, yielding unique electronic/photophysical or mechanical properties that can be explo

86 A detailed investigation of the photophysical parameters and photochemical reactivity of

87 We estimated photophysical parameters by fitting a three-state model

88 Although the small size and superb photophysical parameters of fluorescent-dyes offer uniqu

89 ion microscopy as a function of the measured photophysical parameters of the probe such as photobleac

90 of RISC, as well as several other important photophysical parameters such as exciton diffusion coeff

91 one hand, approach (a) allows the control of photophysical parameters such as Stokes shift, emission

92 ins, is strongly entangled with spectral and photophysical parameters.

93 Spectral, photophysical, photodynamic, and biological properties o

94 ystems possess an unsurpassed combination of photophysical, physiochemical, and biodistribution prope

95 In this review, we describe the underlying photophysical principles by which this energy is absorbe

96 This scheme alleviates photophysical problems of acceptors such as rapid photob

97 of spin density distribution in driving this photophysical process has been unclear until now.

98 Singlet fission (SF) is a photophysical process in which one of two adjacent organ

99 The photophysical process of localized surface plasmon reson

100 ns under infrared radiation by utilizing the photophysical process of triplet fusion upconversion, a

101 competitive reactions especially for using a photophysical process owing to its tunable properties.

102 n upconversion (TTA-UC) is an unconventional photophysical process that yields high-energy photons fr

103 Thermally activated photophysical processes are ubiquitous in numerous organ

104 These fundamental insights into the photophysical processes in heavily doped nanocrystals wi

105 approaches for understanding the underlying photophysical processes in hot electron generation and d

106 Hot carrier (HC) cooling, as one of the key photophysical processes in LHPs, can strongly influence

107 A fundamental knowledge of these photophysical processes is crucial for the development o

108 wever, little is known about the fundamental photophysical processes of g-C3N4, which are key to expl

109 r dynamics and transport, and other relevant photophysical processes that have propelled these materi

110 stitutes the first step of photochemical and photophysical processes that include primary events in h

111 ropenium chloride (TNTPC) displayed a strong photophysical profile including a 0.92 quantum yield asc

112 Results: The dye composition influenced the photophysical properties (brightness range 0.3-1.5 x 10(

113 dged derivative is soluble in water, and all photophysical properties (conversion rates, quantum yiel

114 cence (CPL) complexes displaying exceptional photophysical properties (quantum yield up to 31 % and |

115 Photophysical properties also revealed an extremely long

116 emissive materials were synthesized and the photophysical properties analyzed.

117 ter referred to as OptoBAX) by improving the photophysical properties and light-independent interacti

118 The photophysical properties and photochemistry of [Ru(cyTPA

119 ynthesized and studied with respect to their photophysical properties and response toward ionizing ne

120 In this work, we have studied how the photophysical properties and subcellular accumulation of

121 frared (NIR) fluorescent dyes with favorable photophysical properties are highly useful for bioimagin

122 re characterized by crystallography, and the photophysical properties are probed by varying solvent f

123 bulk fluorescence properties, but also their photophysical properties at the single molecule level.

124 f fluorinated azobenzenes not just may alter photophysical properties but can exhibit a considerably

125 Their photophysical properties can be easily tuned in a wide r

126 synthesized in a one-pot reaction and their photophysical properties characterized by fluorescence,

127 as a significant advantage, namely, improved photophysical properties compared with ThT, which allows

128 Their rich photochemical and photophysical properties derive from a variety of excite

129 Their fascinating photophysical properties enable spectral discrimination

130 bostyril antennae were synthesized and their photophysical properties evaluated using steady-state an

131 These photophysical properties evolve significantly compared t

132 on provided novel fluorophores with suitable photophysical properties for bioimaging applications, in

133 latively few of these systems have desirable photophysical properties for sensing applications.

134 -metal-free C-H/C-Li coupling reactions, and photophysical properties for the novel 4-(perfluoropheny

135 ablished relationships between structure and photophysical properties for this class of bright SWIR c

136 exhibit a wide spectral coverage and unique photophysical properties from the photoinduced isomeriza

137 cceptor strength of the substituent E on the photophysical properties has been established.

138 cyanine scaffold and evaluate the changes in photophysical properties imparted by the fluorous phase.

139 We find that 2CNqA displays excellent photophysical properties in both nucleic acids, is highl

140 ed pai-systems in general and explores their photophysical properties in particular.

141 Key photophysical properties in these systems were evaluated

142 ion spectroscopy and was used to probe basic photophysical properties of (3)CDOM*.

143 Photophysical properties of 2-7 were determined by stead

144 stematically evaluated the photochemical and photophysical properties of a library of Cy7 derivatives

145 n addition to the pre-assembly approach, the photophysical properties of a metallacycle can also be m

146 tic-dimer excited states may account for the photophysical properties of a previously reported lumino

147 port on the synthesis, characterization, and photophysical properties of a rationally designed multic

148 particular, we elucidated the structural and photophysical properties of a series of homologous Pt(II

149 scaffold and consequently, to use the unique photophysical properties of An-BA to improve glycoform d

150 The photophysical properties of aqueous-soluble derivatives

151 Comparison of the photophysical properties of astaxanthin aggregates in mi

152 While the photophysical properties of BN-[10]CPP remains similar t

153 In addition, the ability to utilize the photophysical properties of COFs for applications relate

154 oning investigation into the luminescent and photophysical properties of COFs.

155 re, we describe the synthesis, assembly, and photophysical properties of colloidal QDs that have capt

156 ta-carbonyl substituent, improvements in the photophysical properties of commonly used D-A fluorophor

157 We characterize the photophysical properties of Dendra2 and demonstrate that

158 ffects of ozonation on the photochemical and photophysical properties of dissolved organic matter (DO

159 nces in planarity between the molecules, the photophysical properties of each trimer are derived from

160 ndergo singlet exciton fission to reveal the photophysical properties of entangled triplet-pair state

161 ty coupling is quasi-deterministic since the photophysical properties of every SWCNT are enhanced by

162 However, poor photophysical properties of fluorescent probes limit the

163 both a new perspective for understanding the photophysical properties of GFP as well as a solid basis

164 matic study is presented on the physical and photophysical properties of isoelectronic and isostructu

165 The photophysical properties of isoindigo 6 and 7 exhibit a

166 In this work, we find that photophysical properties of model phthalocyanine compoun

167 nt of the linkers can play a key role in the photophysical properties of MOFs.

168 report the synthesis, crystal structure and photophysical properties of one-dimensional organic lead

169 We argue that photophysical properties of perovskites already proved f

170 In this review, we discuss the photophysical properties of porphyrins, and overview the

171 applications, but little is known about the photophysical properties of pyridine-based BODIPY analog

172 olar substituents around the core affect the photophysical properties of rhodols is now possible.

173 mic-level structure affects the chemical and photophysical properties of semiconducting nanoparticles

174 The ability to cooperatively merge the photophysical properties of semiconductor quantum dots w

175 The photophysical properties of such dyes can be tuned throu

176 d fibers demonstrate unique control over the photophysical properties of the bound, light-activated c

177 nslational process relies on controlling the photophysical properties of the building block, that is,

178 of the protein environment in modulating the photophysical properties of the chromophore, providing i

179 The photophysical properties of the complexes were carefully

180 This is further validated by the photophysical properties of the dye in both solution and

181 ing dynamics on the electronic structure and photophysical properties of the macrocycles came from fl

182 e building blocks is amplified into distinct photophysical properties of the metallacycles, which is

183 conformational, structural, chiroptical, and photophysical properties of the molecule are reported.

184 ctionalization while retaining the excellent photophysical properties of the parent D-A-D system.

185 ted how formaldehyde fixation influences the photophysical properties of the popular green-to-red PCF

186 The photophysical properties of the prepared heterocycles we

187 The photophysical properties of the probe have been studied

188 The electrochemical behavior and photophysical properties of the products were investigat

189 The photophysical properties of the resulting heterocyclic s

190 Photophysical properties of the synthesized compounds we

191 The photophysical properties of the synthesized compounds we

192 Analysis of the photophysical properties of these alpha-amino acids reve

193 The photophysical properties of these cages and their fuller

194 ts in the meso-position, their effect on the photophysical properties of these dyes and some structur

195 The photophysical properties of these materials can be furth

196 nal analysis, we describe the structural and photophysical properties of these unique compounds.

197 In addition, we have surveyed the remarkable photophysical properties of third generation TMCs capabl

198 Moreover, the solution-phase photophysical properties of this cyclophane have been in

199 The unique photophysical properties of this hybrid material are att

200 The photophysical properties of three of the fluorescent unn

201 d area of chemical space and investigate the photophysical properties of three simple DIPYR dyes: bor

202 chniques have been employed to explicate the photophysical properties of TL18.

203 Advances in chemical control of the photophysical properties of transition-metal complexes a

204 The preparation and photophysical properties of two heavier main group eleme

205 nsive MOFs while delving into the underlying photophysical properties of various classes of photochro

206 sation and determination of fluorescence and photophysical properties of various novel analogues of t

207 he presence of the N-ligand also affects the photophysical properties of Yb and Eu by decreasing thei

208 -specific targeting without compromising the photophysical properties or cellular performance of the

209 ematic analysis of electronic structures and photophysical properties provided further insight into t

210 This class of structures exhibits unusual photophysical properties relative to organic polymers.

211 and their nonbridged precursors have similar photophysical properties since they emit through similar

212 tration-dependent localization and possesses photophysical properties that are compatible with SIM an

213 he heterobimetallic complexes herein exhibit photophysical properties that are favorable to those for

214 ork provides an advance in understanding the photophysical properties that correlate long- to short-r

215 y of such hybrid materials, reports on their photophysical properties that is anticipated to have sig

216 ations, suggest a rationale for the observed photophysical properties that is dependent on duplex int

217 experimentally confirmed its structural and photophysical properties through UV-vis, NMR, and X-ray

218 of cycloparaphenylenes (CPPs) gives rise to photophysical properties unlike any other small molecule

219 h low probe concentrations, we modulated the photophysical properties via changes at the 5-position o

220 ns are organic heterocyclic macrocycles with photophysical properties well-suited for clinical photot

221 Its reactivity and photophysical properties were evaluated in direct compar

222 tigated by scanning electron microscopy, and photophysical properties were evaluated using UV-Vis and

223 stitution and double benzannulation on their photophysical properties were examined with experimental

224 ding arylacetonitrile derivatives, and their photophysical properties were fine-tuned through the inc

225 c in HeLa cells, and their spectroscopic and photophysical properties were found similar to those of

226 fects of said substitution on the compounds' photophysical properties were rationalized by density fu

227 They also display excellent photophysical properties with a high fraction of long-li

228 In addition, the change in photophysical properties with extension of conjugation o

229 se of synthesis and purification, remarkable photophysical properties, and chemically sensitive TTz p

230 due to the increased understanding of their photophysical properties, and new methods of synthesis.

231 dy of work, we firstly introduced structure, photophysical properties, co-pigmentation, antioxidant p

232 nocrystals (NCs), owing to their outstanding photophysical properties, have recently emerged as a pro

233 iphery of the parent HBC serve to modify the photophysical properties, highest occupied molecular orb

234 uorescent SOFs exhibit intriguing and varied photophysical properties, including large red-shifts (up

235 able independent regulations of many desired photophysical properties, including the Stokes shift val

236 large polaron responsible for the remarkable photophysical properties, irrespective of the cation typ

237 c energy transfer, and thus on the resulting photophysical properties, is demonstrated.

238 ork exists to comprehensively describe these photophysical properties, namely the absorption maxima,

239 f its super-large Stokes shift and excellent photophysical properties, Pt(2) L is capable of serving

240 terchromophoric noncovalent interactions and photophysical properties, respectively, resulted in the

241 The combination of photophysical properties, structural tunability, stabili

242 In addition to tunability of photophysical properties, such as absorption and emissio

243 rption maxima in the range of 693-805 nm and photophysical properties, such as quantum yields of sing

244 azocines have fascinating conformational and photophysical properties, their use has been limited by

245 though they present a wealth of interesting photophysical properties, these optically dark states si

246 nically orthogonal with respect to the dye's photophysical properties, which are only determined by t

247 Quantum dots (QDs) present favorable photophysical properties, which implies their potential

248 antage from the combination of their optimal photophysical properties.

249 several dynamic processes that influence the photophysical properties.

250 relation with the observed photochemical and photophysical properties.

251 es of ortho-chlorinated azobenzenes on their photophysical properties.

252 on to a panoply of chromophores with diverse photophysical properties.

253 minophores can significantly influence their photophysical properties.

254 structural considerations and an overview of photophysical properties.

255 ssesses even higher tunability and excellent photophysical properties.

256 ocines are bridged azobenzenes with superior photophysical properties.

257 kites and its connection with structural and photophysical properties.

258 alized nanohoop, show unique solid-state and photophysical properties.

259 ation energies and for interpretation of the photophysical properties.

260 e a Ba(2+)-coordinated species with distinct photophysical properties.

261 regard to their structural, electronic, and photophysical properties.

262 ir unique molecular and electronic dependent photophysical properties.

263 and semi-rigid structure exhibited anomalous photophysical properties.

264 Nanographenes exhibit outstanding photophysical properties: intrinsic blinking even in air

265 ll of the observed strong correlations among photophysical properties; related subtopics are extensiv

266 tically generate material with predetermined photophysical response and excited-state properties.

267 lar, analysis of the confinement effect on a photophysical response of integrated 5-(3-chlorobenzylid

268 ffold environment for tailoring a material's photophysical response.

269 r formation) and any associated changes on a photophysical response.

270 ts can be isolated, each displaying variable photophysical responses.

271 nt dye sensors has been developed, and their photophysical sensing properties are reported.

272 It considers the chemical and photophysical solutions that transition metal complexes

273 ting approach imparts enhanced colloidal and photophysical stability to the nanocrystals over a broad

274 twork model accurately predicts the observed photophysical states of C-PC and suggests highly variabl

275 real time, we directly monitor the changing photophysical states of individual C-PC monomers from Sp

276 uccess to directly observe the heterogeneous photophysical states present in a population of luminesc

277 The number of photophysical states, the kinetics of interconversion, a

278 Via photophysical studies Ni et al. observe 'quantum cutting

279 The systematic photophysical studies of CDP-naphthalimide (CDP-NI) conj

280 e upsurge in the development and fundamental photophysical studies of more than 100 metal-organic fra

281 Furthermore, photophysical studies of the isolated molecules in a fro

282 Photophysical studies of the resulting compounds show th

283 Single molecule photophysical studies of these biocompatible nanotubes a

284 The photophysical studies on conjugates revealed that azaBOD

285 Photophysical studies reveal extended pi-effects that in

286 Photophysical studies reveal that the Bu(3)Sn-substitute

287 Structural and photophysical studies reveal that the enhanced afterglow

288 r affinities, steady-state and time-resolved photophysical studies reveal that the nature of the link

289 Photophysical studies showed that alkyl substitution res

290 Both control experiments and photophysical studies supported a radical based mechanis

291 Photophysical studies were performed, and photocyclizati

292 ished to be 2:1 (TPEN:Ag(+)) on the basis of photophysical studies, mass analysis, and high-resolutio

293 Photophysical studies, single-crystal structures, and th

294 glues, optogenetic tools, and platforms for photophysical studies.

295 While photophysical study highlights that the introduction of

296 A series of photophysical titrations show this Eu(III) chelate behav

297 The photophysical tuning is reported for a series of tetraph

298 Our findings contribute to the photophysical understanding of this intriguing and relat

299 were studied, revealing efficient tuning of photophysical (UV/visible and emission) and chiroptical

300 ied with respect to their microstructures by photophysical, X-ray crystallographic, and computational