ライフサイエンスコーパス: luminescent

1 properties; in particular, they are strongly luminescent.

2 ise achiral crown ether macrocycle bearing a luminescent 2,2'-bipyrene unit when they interact throug

3 The X-ray structure of the deep red, highly luminescent 4 shows it to be a D(2) -symmetric molecule

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 Further pressurization induces a non-luminescent amorphous yellow phase, which is retained an

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

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

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

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

11 ated by measuring exciton transport for both luminescent and dark materials, as well as for small mol

12 operties, thus successfully achieving higher luminescent and easier oxidizable syn- syn bis[1]benzoth

13 The resultant nanocomposites are luminescent and exhibit a bright, sub-second lifetime af

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

15 read occurrence of luciferin and SBF in both luminescent and non-luminescent Keroplatinae larvae indi

16 has been a burgeoning investigation into the luminescent and photophysical properties of COFs.

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

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

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

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

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

22 ting technology to fabricate arbitrary 2D/3D luminescent architectures.

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

24 e relatively abundant and diverse, but their luminescent bacterial symbionts remain enigmatic.

25 PECT), magnetic resonance imaging (MRI), and luminescent-based imaging (LumI).

26 tride clusters, and consequently enhance its luminescent behavior.

27 or creating chiral plasmonic nanostructures, luminescent biological labels, and nanoscale transducers

28 zed, to form a complete family of lanthanide luminescent bioprobes: [EuL(4a)], [SmL(4a)], [YbL(4b)],

29 Although luminescent biosensing nanoprobes have been developed to

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

31 Herein, we design a luminescent building block (L) for metal complexes and a

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

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

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

35 ganic pH responsive system is developed from luminescent carbonated hydroxyapatite nanoparticles dope

36 luciferase, and the recently discovered non-luminescent cave worm Neoditomiya sp as the main source

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

38 Incorporating luminescent CdTe nanowires into these fibres imparts the

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

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

41 rk via simple cation exchange, yielding dual luminescent centers comprised of the ligand and Tb(3+) i

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

43 d these goals in the field of supramolecular luminescent chemosensors, including macrocycles, polymer

44 terol has been designed and synthesized as a luminescent cholesterol mimic for the monitoring of chol

45 However, the bottom-up synthesis of luminescent COF systems remains a challenge in the field

46 A collection of known luminescent COF systems will be featured.

47 iew will highlight methods used to fabricate luminescent COFs and discuss the factors that are critic

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

49 The luminescent color of the Tb/Eu(TATB) can be finely modul

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

51 Luminescent complexes of heavy metals such as iridium, p

52 In this aspect, luminescent complexes of precious metals such as iridium

53 ermochromic, vapochromic, and solvatochromic luminescent compounds, as well as sensory materials for

54 ificantly less than 1%, applications such as luminescent concentrators and optical refrigerators beco

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

56 Luminescent-conjugated oligothiophenes (LCOs) have amylo

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

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

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

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

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

62 hat HIFU irradiation successfully triggers a luminescent dioxetane, resulting in localized generation

63 rystal with naturally occurring out-of-plane luminescent dipole orientation.

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

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

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

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

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

69 Thus, high-luminescent efficiencies (Phi(PL) = 0.61 and 0.77) along

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

71 Its luminescent efficiency is up to 9.2 cd A(-1) , which is

72 +) coordination chemistry and guest-enhanced luminescent emission, whereas the framework itself provi

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

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

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

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

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

78 The Protein-Probe method is based on highly luminescent europium chelate-conjugated probe, which is

79 A series of highly luminescent europium(III) complexes which exhibit photol

80 The sp(2) carbon frameworks are highly luminescent even in the solid state and exhibit topology

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

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

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

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

85 lculations, that layered InSe flakes sustain luminescent excitons with an intrinsic out-of-plane orie

86 molecules, as the existing methods utilizing luminescent external probes suffer from low sensitivity.

87 A luminescent fabric that displays movable pixels and othe

88 As a representative example, an ionotronic luminescent fiber that can be lengthened to ~2.5 times i

89 ion perovskites, as well as routes to highly luminescent films by controlling charge density and tran

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

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

92 oxyhispidin acts as a luciferin substrate in luminescent fungi.

93 he pathway, hispidin 3-hydroxylase, from the luminescent fungus Mycena chlorophos (McH3H), which cata

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

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

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

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

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

99 n-year studies on developing renal clearable luminescent gold NPs.

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

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

102 oposed, allowing on-site visual detection of luminescent gunshot residue (LGSR) at the crime scene.

103 tem consisting of chemically tunable, highly luminescent halide perovskite nanocrystals to illustrate

104 unity efficiency, which allows us to achieve luminescent harvesting of the dark triplet excitons.

105 s, this molecular switch efficiently induces luminescent helical superstructures, that is, a choleste

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

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

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

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

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

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

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

113 uciferin and SBF in both luminescent and non-luminescent Keroplatinae larvae indicate an additional i

114 ion nanoparticles (UCNPs) as background-free luminescent labels in bioanalytical applications strongl

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

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

117 ray using nonspecific long lifetime unstable luminescent lanthanide labels.

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

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

120 Luminescent lanthanide(III)-based molecular scaffolds ho

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

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

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

124 venient approach to preparing supramolecular luminescent liquid crystals, which will serve as good ca

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

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

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

128 lebrush copolymers from red, green, and blue luminescent macromonomers, which were then used to prepa

129 rials, including molecular magnetic sponges, luminescent magnets, chiral magnets and photomagnets, SH

130 Three different luminescent markers coordinated with europium for specif

131 been developed to show that the insertion of luminescent markers enables not only the easy localizati

132 overcome this drawback, the introduction of luminescent markers was proposed, allowing on-site visua

133 For the luminescent material boron subphthalocyanine chloride, t

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

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

136 Soft luminescent materials are attractive for optoelectronic

137 acted a great deal of attention as promising luminescent materials due to their strong doublet emissi

138 However, the available tunable luminescent materials reported so far still suffer from

139 The marriage of luminescent materials research with nanophotonics curren

140 Luminescent materials showing thermally activated delaye

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

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

143 es of polymers, hence casting these emerging luminescent materials to a wide range of mechanical prop

144 e process is critical for the development of luminescent materials with controllable emissions in dif

145 Optical multiplexing based on luminescent materials with tunable color/lifetime has po

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

147 dyes are paired with novel or nontraditional luminescent materials.

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

149 F and luciferin of Orfelia fultoni and other luminescent members of the Keroplatinae subfamily still

150 ests the optical energy and funnel it to the luminescent metal center.

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

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

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

154 is work, we present a novel lanthanide-based luminescent metal-organic framework, named SION-105, wit

155 Luminescent metal-organic frameworks (LMOFs) are promisi

156 and the results obtained by our ratiometric luminescent method were consistent with those by ion chr

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

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

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

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

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

162 ubes have emerged as promising near-infrared luminescent molecular bio-probes; yet, their inefficient

163 Furthermore, the existing luminescent molecular probes for H(2)S cannot monitor it

164 followed by sections on absorptiometric and luminescent molecular probes for use pH in sensors.

165 ) compounds are designed as a novel class of luminescent molecular probes to produce extraordinary ch

166 lysis, will greatly enhance understanding of luminescent molecules and lead to the development of nov

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

168 Thus, a versatile luminescent nano-sensor for multiple environmental param

169 le-nozzle flame synthesis to engineer hybrid luminescent nanoaggregates as ratiometric robust biosens

170 e in the excited-state physical chemistry of luminescent nanoclusters and a general strategy for the

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

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

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

174 echnology has enabled advances in the use of luminescent nanomaterials in imaging, sensing and photon

175 Understanding fundamental behavior of luminescent nanomaterials upon photoexcitation is necess

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

177 Persistently luminescent nanoparticles have previously been fabricate

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

179 rties of the building block, that is, single luminescent nanoparticles.

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

181 Here, we describe a luminescent nanoprobe, composed of a fluorescent semicon

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

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

184 orced the search for alternative ultrastable luminescent nanoprobes.

185 These luminescent nanorod bundles exhibit strong green emissio

186 materials is shown experimentally through a luminescent nanosystem with rationally designed dielectr

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

188 Luminescent network: Colloidal excimer superstructures w

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

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

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

192 ches relying on the synthesis of custom-made luminescent organic molecules.

193 eloped to produce freestanding highly-stable luminescent organogels, within which CH(3) NH(3) PbBr(3)

194 These UCNPs show a remarkable enhancement of luminescent output relative to conventional beta-NaYF4:Y

195 n recorded directly in materials with static luminescent outputs are usually visible under either amb

196 tophysical states present in a population of luminescent particles.

197 her CRISPR-mediated integration of the HiBiT luminescent peptide tag can easily be accomplished on a

198 for future construction of programmable auto-luminescent plant traits, such as light driven plant-pol

199 ign principles for the preparation of highly luminescent platinum(ii) cyclometallated pincer complexe

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

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

202 Pdots hold great promise as a luminescent probe to diagnose cancer cells in histology

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

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

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

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

207 e the tremendous progress in the research of luminescent probes for reactive oxygen species (ROS), de

208 R-II imaging system, "Detection of Optically Luminescent Probes using Hyperspectral and diffuse Imagi

209 hysiologic phenotypes using smart switchable luminescent probes.

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

211 As a result, COFs with luminescent properties are of great interest for fields

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

213 The unique physicochemical and luminescent properties of carbon dots (CDs) have motivat

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

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

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

217 Unfortunately, the luminescent properties of these emitters are frequently

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

219 of H(2)O(2) presence on their electronic and luminescent properties.

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

221 the binding of two subunits of an engineered luminescent protein (NanoLuc).

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

223 By cloning and isolating luminescent proteins from bioluminescent organisms, biol

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

225 ors in combination with AlphaLISA (amplified luminescent proximity homogeneous assay ELISA).

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

227 A simple catalytic synthesis of luminescent pyrimidines from benzamidines and alcohols i

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

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

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

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

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

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

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

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

236 0.1Tb0.1)SiO4] is an unprecedented case of a luminescent ratiometric thermometer based on a very stab

237 Herein, a unimolecular chemo-fluoro-luminescent reporter (CFR) is synthesized for duplex ima

238 adian rhythms in cultured cells derived from luminescent reporter embryos or in established zebrafish

239 we performed a small molecule screen using a luminescent reporter of molecular circadian rhythms in z

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

241 ed to deploy the FBP in planta to build auto-luminescent reporters for the study of gene-expression a

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

243 > Na(+) > K(+) > Cs(+) as well as a notable luminescent response for cesium(I) ions and urea.

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

245 for reactive oxygen species (ROS), designing luminescent ROS probes with high sensitivity for the ind

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

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

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

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

250 Luminescent semiconductor quantum dots (QDs) are one of

251 urrounded by a dense corona of many brightly luminescent semiconductor quantum dots (QDs), where both

252 functional material shows enantioselectivity luminescent sensing for a mixture of stereoisomers, demo

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

254 The H(2)S luminescent sensor performance has been verified for mor

255 nd application of the first reversible H(2)S luminescent sensor.

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

257 Luminescent sensors and switches continue to play a key

258 me that Ln(3+)-based materials are promising luminescent sensors for Gsp detection.

259 ks gives rise to the development of advanced luminescent sensors.

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

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

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

263 Luminescent silicon nanocrystals (Si NCs) have attracted

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

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

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

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

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

269 nanocrystal (NC)-polymer composite thin-film luminescent solar concentrators (LSCs) featuring high ab

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

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

272 Luminescent solar concentrators serving as semitranspare

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

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

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

276 rtz count rates rival (even exceed) those of luminescent sources such as single-dye molecules and qua

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

278 velengths corresponded to the europium-doped luminescent SPION (EuSPION) core and the silica-based in

279 tenophores, and brittle stars, but those use luminescent substrates (luciferins) obtained from their

280 First, highly luminescent sulfur and nitrogen doped graphene quantum d

281 ensitizer for the preparation of enantiopure luminescent supramolecular energy-converting devices and

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

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

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

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

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

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

288 Luminescent terbium complexes are an example of such a m

289 release calcium dipicolinate to form highly luminescent terbium dipicolinate complexes surrounding e

290 strategy to realize a membranous ratiometric luminescent thermometer based on the emissions of two la

291 urther practical application of Ln-MOF-based luminescent thermometers in various fields and condition

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

293 A series of six luminescent two-coordinate Cu(I) complexes were investig

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

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

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

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

298 Luminescent zeolites exchanged with two distinct and int

299 Herein, exposure of the highly luminescent Zn(2)(bpdc)(2)(bpee) MOF (H(2)bpdc = 4,4'-bi

300 A luminescent Zr(IV)-based metal-organic framework (MOF),