ライフサイエンスコーパス: luminescent

1 properties; in particular, they are strongly luminescent.

2 Red-luminescent 200 nm silica nanoparticles have been design

3 anic dyes (e.g., those based on other highly luminescent achiral chromophores and/or chirally perturb

4 n the inner surfaces of reaction vessels and luminescent Ag-nanoparticles (AgNPs) in supernatant solu

5 The Ag-coated surfaces, luminescent AgNPs, and F radicals produced by this unpre

6 ked to the effect using DPPH( *) reagent and luminescent Aliivibrio fischeri bioassay.

7 The new method affords stable luminescent alkyl/alkenyl-functionalized SiNCs.

8 n ascorbic-acid-based hydrogel encapsulating luminescent amphiphilic carbon-dots (C-dots).

9 These were analyzed by using luminescent and (1)H NMR titrations studies, allowing fo

10 harmful compounds, heterogeneous catalysis, luminescent and corrosion protectants).

11 Here we probe exciton harvesting in both luminescent and dark materials using a photovoltage-base

12 Cutting-edge imaging technologies and new luminescent and fluorescent genetic tools now make it po

13 es have been firstly calculated to study the luminescent and heteroepitaxial growth mechanisms by the

14 so demonstrates high external quantum yield, luminescent and moisture stability, solution processabil

15 The complexes are brightly luminescent and present very high quantum yield values.

16 thanks to the unique physical (magnetic and luminescent) and coordination properties of the lanthani

17 ltering or introducing electronic, magnetic, luminescent, and catalytic properties for several applic

18 emphasis herein will be on systems that are luminescent, and hence, generated by using either visibl

19 optical sensing part describes fluorescent, luminescent, and surface plasmon resonance systems.

20 Here we report a luminescent approach to evaluate acute hepatotoxicity in

21 Here we address these issues by assembling luminescent aromatic C16-C38 hydrocarbons together on a

22 Bright, red luminescent atomically precise gold clusters, Au@BSA (BS

23 osition and structural information of highly luminescent Au NCs.

24 Luminescent bacteria inhibition test with Vibrio fischer

25 In a mouse skin model, luminescent bacteria were present in lesions that formed

26 een the host squid Euprymna scolopes and its luminescent bacterium Vibrio fischeri as a model system.

27 The luminescent-based sensing properties of these Ag:NCs wer

28 tride clusters, and consequently enhance its luminescent behavior.

29 the activators, providing highly attractive luminescent biomarkers for bioimaging without autofluore

30 6 cofactor pyridoxal was conjugated with the luminescent BSA-AuNCs through the free amines of BSA and

31 in vivo has exclusively relied on using the luminescent Ca(2+) probe aequorin.

32 drothermal method was used to prepare highly luminescent carbon dots (1-6 nm size) within a minute fr

33 , carbon-based nanotubes, graphene variants, luminescent carbon dots, nanocrystals as quantum dots, a

34 e demonstrate this approach by incorporating luminescent CdSe-ZnS nanoparticles into macroscopic tube

35 )-doped YAG planar waveguide sensitized by a luminescent CdSe/CdZnS (core/shell) colloidal nanocrysta

36 magnetic (Fe2O3), catalytic (palladium) and luminescent (CdSe/Te@ZnS and CdSe@ZnS)--can be incorpora

37 Highly luminescent CdSeS quantum dots (QDs) with a diameter of

38 used as a medium for the synthesis of highly luminescent CdTe nanocrystals (NCs) capped with thioglyc

39 Incorporating luminescent CdTe nanowires into these fibres imparts the

40 Two complete mixed-ligand series of luminescent Ce(III) complexes with the general formulas

41 Luminescent Ce(III) complexes, Ce[N(SiMe3)2]3 (1) and [(

42 as as diverse as magnetic resonance imaging, luminescent cell labelling and quantum computing.

43 der to elucidate the atomic structure of the luminescent centers, we directly observe individual Ce d

44 r matrixes and results in a series of highly luminescent CH3 NH3 PbBr3 (MAPbBr3 )-polymer composite f

45 he preparation of specific and high-affinity luminescent chemosensors.

46 We sought to engineer stably luminescent clinical strains of Staphylococcus aureus, w

47 In this work, we introduce the synthesis of luminescent colloidal CdSe nanorings and nanostructures

48 , ferroelectric, magnetic, semiconductor and luminescent colloidal nanocrystals.

49 characteristic accompanied by a progressive luminescent color conversion from yellow to green and fi

50 ent gels could be mixed to give a variety of luminescent colors depending on their Eu(III):Tb(III) st

51 The water-soluble and visible luminescent complexes cis-[Ru(L-L)2(L)2](2+) where L-L =

52 he complex into HCT116 cells was detected by luminescent confocal microscopy.

53 ids formed in vivo can be interrogated using luminescent conjugated oligothiophenes (LCOs), a unique

54 Luminescent-conjugated oligothiophenes (LCOs) have amylo

55 The target-specific luminescent conjugates were applied for multiplex detect

56 The rapidly growing number of luminescent coordination polymers (CPs) and metal-organi

57 th study of mechanochromic and thermochromic luminescent copper iodide clusters exhibiting structural

58 We report the synthesis of luminescent crystals based on hexagonal-phase NaYF4 upco

59 The migration of weakly and non-luminescent (dark) excitons remains an understudied subs

60 polaron annihilation that leads to long-term luminescent degradation is suppressed, resulting in a mo

61 dependent on the design of the upconversion luminescent detection label.

62 Here, luminescent detection of [Ca(2)(+)](cyt) showed that AtA

63 erties of the polymers were exploited in the luminescent detection of fluoride ions.

64 And, the turn-on voltage of the luminescent device was reduced to 3 V.

65 metals in dye-sensitized solar cells and in luminescent devices by earth-abundant elements.

66 The complex is comprised of luminescent dinuclear ruthenium(II) polypyridyl complex

67 It can be used as a luminescent DNA probe, with emission switched on through

68 nance energy transfer (BRET) assay using the luminescent donor Nanoluciferase and fluorescent accepto

69 rtant class of host materials for a range of luminescent dopants, including transition-metal and lant

70 Optically stimulated luminescent dosimeters (OSLDs) were inserted into the tu

71 tein N of bacteriophage P22, equipped with a luminescent DOTA[Tb(3+)] macrocyclic complex and a sensi

72 rein, a strategy for the synthesis of highly luminescent dual mode upconverting/downshift Y1.94O3:Ho(

73 l gold, carbon, and colloidal selenium NPs), luminescent (e.g., quantum dots, up-converting phosphor

74 s with very high color purity, but their low luminescent efficiency is a critical drawback.

75 e inhibitor of MPO, significantly attenuated luminescent emission from inflamed lungs.

76 , the resulting nanomaterials exhibit superb luminescent emissions over the visible region from red t

77 Eu(3+) subset2, and Eu(3+) subset3) having a luminescent Eu complex (signaling unit) bonded in differ

78 Long-lifetime luminescent Eu(III) complexes are widely used as donors

79 ing nanoparticles were used as donors, and a luminescent Eu(III)-chelate was used as an acceptor.

80 Herein we present a supramolecular (delayed luminescent) Eu(III)-based pH-responsive probe/sensor wi

81 Luminescent europium complexes are used in a broad range

82 ctions of the sample liquid, a long lifetime luminescent europium label, and various surface modulato

83 t-ring oligomers are revealed to be brightly luminescent, even in the solid state.

84 c coupling at lattice copper sites to form a luminescent excited state that is essentially identical

85 thus favoring radiative deactivation of the luminescent excited state.

86 athways and leading to the generation of the luminescent excited state.

87 By every spectroscopic measure, the luminescent excited states of all three materials are es

88 he electronic and magnetic properties of the luminescent excited states of colloidal Cu(+):CdSe, Cu(+

89 Here, we resolve the orientation of luminescent excitons and isolate photoluminescence signa

90 ted by metal phosphates to create a cationic luminescent framework, NTHU-12.

91 s based on a novel white, uncharged, and non-luminescent functional nonwoven nanofibre mat (Tiss(R)-L

92 nia [8-15], we examined interactions between luminescent fungi and insects [16].

93 Herein, a new family of luminescent Ga(3+)/Ln(3+) metallacrown (MC) complexes is

94 ethods for monitoring GTP hydrolysis rely on luminescent GDP- or GTP-analogs.

95 These highly luminescent gels could be mixed to give a variety of lum

96 Luminescent gold nanocrystals (AuNCs) are a recently-dev

97 amethyl-rhodamine (TAMRA), to pH-insensitive luminescent gold nanoparticles (AuNPs) can lead to an ul

98 Glutathione-coated luminescent gold nanoparticles (GS-AuNPs) with diameters

99 ied as ancillary ligands in the synthesis of luminescent gold(I) chalcogenide clusters and this appro

100 A range of differently sized luminescent guests, namely coumarin 1, coumarin 4, fluor

101 e recombination in the nanocrystal, enabling luminescent harvesting of triplet exciton energy in ligh

102 ntial for lowering the limit of detection of luminescent hybridization assays due to the negligible b

103 new insight into photophysical properties of luminescent hydroxypyridonate complexes [M(III)L](-) (M

104 onal multilayer architecture, we demonstrate luminescent hyperbolic metasurfaces, wherein distributed

105 ay to detect miRNA targets in 3'UTRs, called Luminescent Identification of Functional Elements in 3'U

106 tention of developing new classes of probes, luminescent imaging agents, therapeutics and theranostic

107 also showed increased luciferase activity by luminescent imaging and enhanced accumulation of (18)F-F

108 ing the reliability and precision of Diffuse Luminescent Imaging Tomography (DLIT) for monitoring pri

109 TL) sensing method based on detection of the luminescent intensities of both the analyte (I(A)) and i

110 vitro and in vivo in living mice, and total luminescent intensity is increased by approximately 5-fo

111 Strongly luminescent iridium(III) complexes, [Ir(C,N)2 (S,S)](+)

112 luminescent lanthanide chelate into two non-luminescent label moieties.

113 Luminescent lanthanide (Ln(III)) complexes with coumarin

114 n of assay background due to division of the luminescent lanthanide chelate into two non-luminescent

115 Near-infrared (NIR) luminescent lanthanide complexes hold great promise for

116 ) pathways between QDs and fluorescent dyes, luminescent lanthanide complexes, and bioluminescent pro

117 pon photoexcitation of several Eu(III)-based luminescent lanthanide complexes.

118 ray using nonspecific long lifetime unstable luminescent lanthanide labels.

119 A main challenge in the creation of luminescent lanthanide(III) complexes lies in the design

120 ep forward toward versatile, easily prepared luminescent lanthanide(III) complexes suitable for a var

121 Luminescent lanthanide(III)-based molecular scaffolds ho

122 nide-binding tag (LBT), and LRET between the luminescent (LBT)-Tb(3+) donor complex and fluorescently

123 This precision permitted collection of luminescent lifetime images of the probe, without the ne

124 r quenching capacity of these species led to luminescent lifetimes of the probe at longer Antimycin A

125 iode (LD), light emitting diode (LED), super luminescent light emitting diode (sLED) and micro light

126 [Ru(Me4phen)2dppz](2+) serves as a luminescent "light switch" for single base mismatches in

127 d be taken into consideration when designing luminescent Ln complexes.

128 s is demonstrated by a new class of brightly luminescent low-cost Cu(I) compounds, for which the emis

129 esonance energy transfer (TR-FRET) between a luminescent Lumi4-Tb cryptate (Tb) donor and a fluoresce

130 For the luminescent material boron subphthalocyanine chloride, t

131 re earth metals (Eu, Tb and Gd) to produce a luminescent material which has been studied by atomic-re

132 tructural transformations and characterizing luminescent materials (including time-resolved measureme

133 The marriage of luminescent materials research with nanophotonics curren

134 Luminescent materials showing thermally activated delaye

135 complex time-gated decoding instrumentation.Luminescent materials that are capable of binary tempora

136 cryptate is a step toward Eu(II)-containing luminescent materials that can be used in a variety of a

137 uster that represents an unexplored class of luminescent materials with stimuli-responsive photophysi

138 Optical characteristics of luminescent materials, such as emission profile and life

139 In recent years, luminescent materials, which are capable of converting a

140 y thermal stability, and could be general to luminescent materials, which are sensitive to valence va

141 dyes are paired with novel or nontraditional luminescent materials.

142 rugs, sensing and tunable light emission for luminescent materials.

143 high-performance solar cells based on these luminescent materials.

144 A first-generation of luminescent MCs was presented previously but was limited

145 ansparency change mechanochromism (TCM), (2) luminescent mechanochromism (LM), (3) colour alteration

146 te sections of the review discuss the use of luminescent metal complexes to act as non-conventional p

147 ation and the formation of robust and highly luminescent metal complexes.

148 s a promising step toward the application of luminescent metal nanoclusters as potential metal sensor

149 rom the conjugation of organic dyes onto non-luminescent metal nanoparticles (NPs) have greatly broad

150 We designed and synthesized a new luminescent metal-organic framework (LMOF).

151 rough the use of nanocrystal pinning, highly luminescent methylammonium lead bromide films are used t

152 min and locate individual 15 mum lanthanide luminescent microspheres with standard deviations of 1.3

153 harp Cdk1 threshold for phosphorylation of a luminescent mitotic substrate.

154 es together and resulted in self-assembly of luminescent mixed chelate complex.

155 n of luminescence in MOFs, the advantages of luminescent MOF (LMOF) based sensors, general strategies

156 zes the topical developments in the field of luminescent MOF and MOF-based photonic crystals/thin fil

157 ay be exploited for bio-inspired solid-state luminescent molecules or nanoparticles.

158 inistered anti-VEGFA therapy to mice bearing luminescent mouse fibrosarcomas expressing single VEGFA

159 ed specifically for the production of highly luminescent, nanocrystalline porous Si from the reaction

160 ls for probing the optical properties of the luminescent nanocrystals.

161 Here, we report the usage of six luminescent nanodot-graphene oxide complexes as novel fl

162 Understanding fundamental behavior of luminescent nanomaterials upon photoexcitation is necess

163 d the luminescent properties of upconverting luminescent nanoparticles (UCLNPs).

164 sing LiGa5O8:Cr(3+) near-infrared persistent luminescent nanoparticles as a tracer nanoagent, we achi

165 Persistently luminescent nanoparticles have previously been fabricate

166 Conjugation of the aptamer-functionalized luminescent nanoparticles with the magnetic beads, compr

167 c hybrid perovskite nanocrystals into highly luminescent nanoplates with a shorter carrier lifetime.

168 Taken together, this array-based luminescent nanoprobe-graphene oxide sensing platform pr

169 currently few methods for stabilizing these luminescent nanoprobes with oligonucleotides in biologic

170 orced the search for alternative ultrastable luminescent nanoprobes.

171 These luminescent nanorod bundles exhibit strong green emissio

172 cadmium telluride (CdTe655) quantum dots as luminescent nanoscaffolds with naphthyridine dyes as flu

173 resonance energy transfer (RET) between two luminescent nanosized particles.

174 eads to Ce(3+)- and Eu(2+)-doped CaS and SrS luminescent NCs with diameters of approximately 10 nm an

175 oach was adopted for the synthesis of highly luminescent near-infrared (NIR)-emitting gold nanocluste

176 Luminescent network: Colloidal excimer superstructures w

177 vity was monitored with an integrated robust luminescent O2 sensor.

178 tion with Au(I) ions spontaneously assembles luminescent one-dimensional helical chains, characterize

179 zed, and investigated as easily tunable high-luminescent organic materials.

180 A series of highly luminescent oxadiazole-based stilbene molecules (OXD4, O

181 type in the development of highly effective luminescent oxygen sensors.

182 he synthesis of colloidally stable, brightly luminescent perfluorodecyl-capped silicon nanocrystals a

183 on of protein-templated Ag nanoclusters as a luminescent photoswitch for the detection of metal ions.

184 Luminescent platinum complexes have attractive chemical

185 skite crystal structure that are also highly luminescent (PLQY 84%).

186 The optical properties of these highly luminescent polymer networks are readily modulated over

187 We show that luminescent porous silicon nanoparticles (LPSiNPs), each

188 and interpreting the fluorescent outputs of luminescent probes and optoelectronic devices based on f

189 This Review article focuses on all kinds of luminescent probes and sensors for measurement of T, and

190 ffer a fascinating library of ultrasensitive luminescent probes for a range of biotechnology applicat

191 ess that has been made in the development of luminescent probes for Group I and Group II ions as well

192 nanoparticles (Ln:NPs) hold promise as novel luminescent probes for numerous applications in nanobiop

193 In fact, biocompatible luminescent probes with unique photochemical and photoph

194 ic sensing of oxygen, on absorptiometric and luminescent probes, on polymeric matrices and supports,

195 f carbohydrates and other molecules (such as luminescent probes, peptides, and magnetic chelates) ont

196 Nanoparticles exhibiting both magnetic and luminescent properties are need of the hour for many bio

197 The resulting terbium coiled coil displays luminescent properties consistent with a lack of first c

198 in various media has been assessed, and its luminescent properties have been studied.

199 ls are highly crystalline and display unique luminescent properties in the solid state.

200 This review focuses on the luminescent properties of colloidal copper-doped, copper

201 the mechanism involved in the mechanochromic luminescent properties of metal-based compounds.

202 s to investigate the relevant dosimetric and luminescent properties of MgO:Li3%,Ce0.03%,Sm0.03%, a ne

203 gth leads to control over the electronic and luminescent properties of the resulting material, thereb

204 Unfortunately, the luminescent properties of these emitters are frequently

205 d with a fluorescein derivative (FS) and the luminescent properties of upconverting luminescent nanop

206 This hybrid nanomaterial displays enhanced luminescent properties relative to that of the ruthenium

207 th diameters of approximately 10 nm and with luminescent properties similar to those of the bulk anal

208 A method of introducing intrinsically photo luminescent properties to biodegradable polymer is intro

209 otential metal sensors since by tuning their luminescent properties we were able to detect and quanti

210 Rhenium(i) complexes reveal luminescent properties, making them interesting candidat

211 in applications that take advantage of their luminescent properties, such as bioimaging, solid-state

212 F that shows sensitive temperature-dependent luminescent properties.

213 The product exhibits the superior luminescent property and photocatalytic activity, which

214 ort five new spectral variants of the bright luminescent protein, enhanced Nano-lantern (eNL), made b

215 Given that a large number of fluorescent and luminescent protein-based cell assays have been develope

216 mic imaging is limited by the lack of bright luminescent proteins with emissions across the visible s

217 a homogeneous assay in AlphaLISA (amplified luminescent proximity homogeneous assay) format using Hi

218 hmAb 1002-1E03 was assessed in an amplified luminescent proximity homogeneous inhibition assay.

219 cies, and we illustrate selected examples of luminescent QD-based sensors taken from the recent liter

220 esis and characterization have led to highly luminescent qdots that are now used in three-color liqui

221 These ligands are then used to functionalize luminescent QDs via a photochemical transformation of LA

222 o-orthogonal coupling strategies directly on luminescent quantum dot (QD) surfaces that use click che

223 timized for the surface-functionalization of luminescent quantum dots (QDs) and gold nanoparticles (A

224 Luminescent quantum dots (QDs) can potentially be used f

225 Luminescent quantum dots were isolated from chloragogeno

226 e precursor in the thermolytic production of luminescent rare earth metal doped silica nanoparticles

227 we report the synthesis of a down-conversion luminescent rare-earth nanocrystal with cerium doping (E

228 Novel luminescent ratiometric nanosensors (QD-NAPTHs) were pre

229 0.1Tb0.1)SiO4] is an unprecedented case of a luminescent ratiometric thermometer based on a very stab

230 , or small, NanoLuc (nLuc; 513 nucleotides), luminescent reporter protein.

231 c syngeneic colorectal tumours in mice via a luminescent reporter.

232 Individual nanofibers successfully act as luminescent reporters of volatile nitroaromatics at sub-

233 charged poly(3-alkoxy-4-methylthiophene) as luminescent reporters.

234 This detection scheme is based on luminescent resonance energy transfer between upconversi

235 the mechanism involved in controlling their luminescent response upon analyte binding will also be d

236 This rotaxane incorporates a luminescent rhenium(I) bipyridyl metal sensor motif with

237 We report a new class of luminescent rotors, based on the sensitized emission of

238 state of the (3)MLCT luminescence in the non-luminescent ruthenium complexes [Ru(m-bpy)3](2+) (m-bpy

239 l display devices, bio-medical applications, luminescent security ink and enhanced energy harvesting

240 ns (f-metal ions) to direct the synthesis of luminescent self-assembly systems (architectures) will b

241 Luminescent semiconducting quantum dots (QDs) are centra

242 The salient optical properties of highly luminescent semiconductor nanocrystals render them ideal

243 Luminescent semiconductor quantum dots (QDs) are one of

244 easurements using radioactive Ca(2+) and the luminescent sensor aequorin have shown that in response

245 allowing its application as self-referenced luminescent sensor for solid-liquid phase change, viscos

246 gates are appealing platforms for developing luminescent sensors according to a modular design.

247 Luminescent sensors and switches continue to play a key

248 s the doping dosage is increased, the strong luminescent signal is progressively reduced.

249 ing either type of biosensor led to a robust luminescent signal within minutes of cell contact.

250 In particular, merging nanoparticles and luminescent signalling can lead to the creation of uniqu

251 was aimed to minimize cross-talk between the luminescent signals for multiplexed detection, and yield

252 nity for onsite analysis and quantitation of luminescent signals from biological and non-biological s

253 that it allows the user to obtain many more luminescent signals from the sensing materials than comm

254 The luminescent signals of I(A) and I(R) were recorded over

255 advantages of creating chemosensors based on luminescent silica nanoparticles.

256 discuss the state of the art in the field of luminescent silica-based nanoparticles for medical imagi

257 Luminescent silicon nanocrystals (Si NCs) have attracted

258 s Boltzmann population distributions between luminescent singlet and triplet excited states with aver

259 At 77 K, two luminescent sites responsible for 550 nm and 645 nm broa

260 of such materials to biological imaging and luminescent solar concentration.

261 A highly efficient thin-film luminescent solar concentrator (LSC) utilizing two pi-co

262 itecture for solar pumped lasers that uses a luminescent solar concentrator to decouple the conventio

263 n demonstrated to be promising materials for luminescent solar concentrators (LSCs) as they can be en

264 dal quantum dots are promising materials for luminescent solar concentrators as they can be engineere

265 to realize the first large-area quantum dot-luminescent solar concentrators free of toxic elements,

266 Luminescent solar concentrators serving as semitranspare

267 esting ability and leads to colouring of the luminescent solar concentrators, complicating their use

268 uch as bioimaging, solid-state lighting, and luminescent solar concentrators, is also discussed.

269 ion spectral-conversion applications such as luminescent solar concentrators.

270 horous diffuser adhered blue GaN LD broadens luminescent spectrum and diverges beam spot to provide a

271 effective nanoplatforms to obtain efficient luminescent, stable, biocompatible and targeted agents f

272 y of equally virulent DNA-tagged clones of a luminescent Sterne strain.

273 irulence was observed between NRS384 and the luminescent strain in either infection model.

274 Mice were infected with a luminescent strain of NRS384 in skin and intravenous mod

275 Luminescent strains displayed no in vitro growth defects

276 As a result, CUP can image a variety of luminescent--such as fluorescent or bioluminescent--obje

277 II) = Eu(III), Tb(III)) in the generation of luminescent supramolecular polymers, that when swelled w

278 this Eu(III) chelate behaves as an "on-off" luminescent switching probe, with its luminescence being

279 quate modeling of the global response of the luminescent system (R(2) > 0.9996) and (2) decreases the

280 cribing the global frequency response of the luminescent system for a wide range of analyte concentra

281 , reductase, and luciferin that comprise the luminescent system.

282 lifetimes for a variety of micrometer-scale luminescent targets, specifically single down-shifting a

283 Probes and biosensors that incorporate luminescent Tb(III) or Eu(III) complexes are promising f

284 s measured in vivo in children using a novel luminescent technology integrated with fibre-optic probe

285 Luminescent terbium complexes are an example of such a m

286 Because these strains are stably luminescent, they should prove useful in animal models o

287 d the various clinically evaluated exogenous luminescent tracers (fluorescent, hybrid, and theranosti

288 covers the advances made in the synthesis of luminescent transition metal complexes containing N-hete

289 Luminescent triarylborane homo and block copolymers with

290 gion, as well as the strong quenching of the luminescent triplet state, caused by dioxygen in water a

291 to be used as dual sensors and can serve as luminescent turn "on" and "off" metal switches.

292 Rapid test [Gold-LFA] and the quantitative, luminescent up-converting phosphor anti-PGL-I test [UCP-

293 These preliminary data suggest that this luminescent USA300 strain is suitable for use in mouse m

294 Highly luminescent water soluble CdTe quantum dots (QDs) were s

295 fication pathway can be exploited to produce luminescent, water-soluble semiconductor cadmium telluri

296 e PLI, and [Ru(2+), 2Br(-)]* was found to be luminescent with an excited-state lifetime of tau = 65 +

297 idium and rhenium bisisoxazole complexes are luminescent with emission wavelengths varying depending

298 The NWs are highly luminescent with photoluminescence quantum yields (PLQY)

299 All of these derivatives are luminescent, with measured fluorescence quantum-yields o

300 Luminescent zeolites exchanged with two distinct and int