ライフサイエンスコーパス: dot

1 MoS(2)-dots were synthetized and characterized by spectroscopic

2 s would generalize the middle concept to a 7 dot series.

3 IL15-induced recombinant tau oligomers and a dot blot assay, we discovered a mAb (M204) that binds ol

4 When a dot moves horizontally across a set of tilted lines of a

5 optical imaging using "single cell adhesion dot arrays" (SCADA), fibronectin (FN) dot arrays designe

6 d convex hull changes but not to density and dot size.

7 signal within the DCP appeared initially as dots, which progressed laterally to loops which form cap

8 pplied to other mask configurations, such as dots, rings or lines, along with other crystallographic

9 larly problematic in strained self-assembled dots.

10 pectra quality is higher in DDA with average dot product score 83.1% higher than DIA in Urine(H), and

11 t forms, including: (1) a Gaussian-like beam dot that revolves around a central axis, and (2) a Lague

12 uIC products were conducted by western blot, dot blot analysis, Raman spectroscopy, atomic force micr

13 ducing agents, including erastin(2,9) and C' dot nanoparticles(8), but not upon direct inhibition of

14 iolabeled peptides and peptide-conjugated C' dots for melanoma imaging and therapy.

15 nd peptide-conjugated Cornell prime dots (C' dots) can serve as delivery vehicles to target both diag

16 While carbon dots (C-dots) have been extensively investigated pertaining to t

17 e using a novel yellow-light emitting Carbon dot (CD) and Congo red dye.

18 The delivery efficacy of carbon dot formulations was also demonstrated by the silencing

19 Ai effectors into plants, such as the carbon dot formulations described here, could become valuable t

20 visible phenotypes observed with the carbon dot-facilitated delivery were validated by measuring sig

21 Carbon dots (CDs) and their derivatives are useful platforms fo

22 s of very small nanoparticles, called carbon dots, for delivering small interfering RNA into the mode

23 ensor that contains different colored Carbon dots (CDs) as dual fluorophores, and a mesoporous struct

24 The as-designed multi-confined carbon dots exhibit ultralong lifetime of 5.72 s, phosphorescen

25 Herein, multi-confined carbon dots were designed and fabricated, enabling room tempera

26 s is studied for a range of different carbon dots and viologens.

27 r and lithium sulfide, nitrogen-doped carbon dots become highly reactive with polysulfides to form a

28 The additive nitrogen-doped carbon dots maintain their "dissolved" status in the electrolyt

29 ered process is reported that employs carbon dots (CDs) as light absorbers for the conversion of lign

30 hemical and luminescent properties of carbon dots (CDs) have motivated research efforts toward their

31 idified the triplet excited states of carbon dots from non-radiative deactivation.

32 riendly method was used to synthesize carbon dots (CDs) from Rosemary leaves, as a carbon source.

33 While carbon dots (C-dots) have been extensively investigated pertain

34 gmentation of S. oneidensis MR-1 with carbon dots (CDs).

35 emonstrate that microwave-synthesised carbon-dots ((m)CD) possess unique hole-accepting nature, prolo

36 2) examining techniques for making effective dot plots, box plots, and violin plots; and (3) illustra

37 Hence, such an enhanced dot blot paves the path to the development of a portable

38 used on searching for statistically enriched dots on a genome-wide map.

39 ccommodate a single cell on each fibronectin dot.

40 hesion dot arrays" (SCADA), fibronectin (FN) dot arrays designed to accommodate a single cell on each

41 y available bioinformatics algorithms (e.g., dot products) do not work well with glycolipid mass spec

42 By formulating a generic dot-stripe model, describing joint patterns rather than

43 leads to generate a distance among graphene dot and graphene oxide and fluorescence is ON.

44 acterial cells, distance between of graphene dot and graphene oxide is very low and graphene quantum

45 Electron microscopy shows ad-grown dots predominantly decorate edges and corners of the nan

46 ties in the ellipsoide zone, hyperreflective dots above the RPE and RPE thickening.

47 tudy, we developed a novel ultrasmall Pt(II) dot (uPtD) from miriplatin and encapsulated it into our

48 drusenoid deposits (SDDs) were divided into dot and ribbon phenotypes.

49 p, rest, or active wake on concept learning (dot pattern classification) and declarative memory (word

50 maintained a preference to choose the middle dot despite changes in the appearance, location, and spa

51 rst, we trained monkeys to select the middle dot in a horizontal series of three dots presented on a

52 ontinued to preferentially select the middle dot.

53 o remember the direction of motion of moving dot stimuli.

54 Participants' reports of the moving dot directions were biased toward the direction predicte

55 ting the likely direction of upcoming moving dot patterns, while recording neural activity using magn

56 nucleus of monkey S, while full-field moving dots activated pulvinar.

57 ated the neural representation of the moving dots just 150 ms after they appeared.

58 ptual reports of the direction of the moving dots were biased toward the predicted direction.

59 Participants observed two moving dots on a screen and were told that these reflect the ha

60 dicted the likely direction of visual moving dots, while recording neural activity with millisecond r

61 d stimulus type (drifting gratings vs moving dots, full field vs small patch).

62 f electron spin-based qubits in neighbouring dots(15-20).

63 begins in hair cells grouped into neuromasts dotted along the animal's body [5].

64 We demonstrated that the new dot blot coupled to biotin-Si-NPs successfully detected

65 Carbon-nitride dots (CND) are emerging nanoparticles with excellent in

66 n 30 h by quantifying the number of occupied dots in the SCADA array.

67 F should be considered for classification of dot SDDs, and confocal pseudocolor is optimal for charac

68 though accuracy decreased when the number of dots was increased, monkeys continued to preferentially

69 od is based on the fluorescence quenching of dots of MoS(2) because of their interaction with the non

70 ion, and spacing of the horizontal series of dots.

71 r of different embedding techniques based on dot product, and show that they all fail to capture the

72 O2 max (beta: -0.02 +/- 0.01; P = 0.047); p$\dot{V}$O2 max was 7 mL . kg-1 . min-1 higher in low- vs.

73 EE (beta: -0.08 +/- 0.02; P = 0.0009) and p$\dot{V}$O2 max (beta: -0.02 +/- 0.01; P = 0.047); p$\dot{

74 Using this method, we achieve very high per-dot Mn contents (>30% of all cations) and thereby realiz

75 f iridian atrophy, which we will call "polka dots" pattern, as a rare ophthalmological finding associ

76 reporting the findings of superficial "polka dots" pattern iridian atrophy in 360 degrees secondary t

77 rization of phosphate-functionalized polymer dots (PDs) by doping tributyl phosphate (TBP) in a semic

78 -wavelength-excitable semiconducting polymer dots (LWE-Pdots) are highly desirable for in vivo imagin

79 oped a novel class of semiconducting polymer dots that can operate in two superresolution imaging mod

80 eptides and peptide-conjugated Cornell prime dots (C' dots) can serve as delivery vehicles to target

81 SUP was graded according to profuseness (dot versus line/drop) and time after probing (>=15 secon

82 Quantum dot (QD) coupling in nanophotonics has been widely studi

83 Quantum dot (QD) fluorescence emission in a low background windo

84 hanol medium based on the ZnS:Mn(2+) quantum dot (QDs) and soluble N-methylpolypyrrole (NMPPy) hybrid

85 ithout the need for a self-assembled quantum dot.

86 Red-green-blue quantum dot arrays with unprecedented resolutions up to 368 pixe

87 assisted assembly of emissive carbon quantum dot (CQD) microcrystals on organized cellulose nanocryst

88 nitial reaction intermediates of CdS quantum dot (QD):MoFe protein nitrogenase complexes under photoc

89 rface ligand properties of colloidal quantum dot (QD) perovskites now enable unprecedented device arc

90 describes the design of a colloidal quantum dot (QD) photosensitizer for the Pd-photocatalyzed Heck

91 The emerging technology of colloidal quantum dot electronics provides an opportunity for combining th

92 nic property variations in colloidal quantum dot solar cells due to film defects, physical damage, an

93 nd p-channel transistors in a common quantum dot active layer.

94 n transport features in gate-defined quantum dot devices with a gate voltage space of up to eight dim

95 le W states of electrons in a double quantum dot (DQD).

96 ngle electron tunnelling in a double quantum dot and demonstrate that gate-based sensing can be used

97 o transfer a single electron to each quantum dot.

98 Electroluminescent quantum dot light-emitting diodes are promising candidates for s

99 ting microwire and a single embedded quantum dot(9).

100 gled photons from a single InAs/GaAs quantum dot over a metropolitan network fiber.

101 Here, a colloidal graphene quantum dot (GQD)-based nanosurfactant is reported to stabilize

102 n this study, titania-ceria-graphene quantum dot (TC-GQD) nanocomposite was synthesized by hydrotherm

103 phene oxide is very low and graphene quantum dot fluorescence emission was OFF.

104 h use of graphene oxide and graphene quantum dot for detection Campylobacter jejuni whole cell in foo

105 Specific binding of graphene quantum dot with Campylobacter jejuni membrane leads to generate

106 al antibody conjugated with graphene quantum dot with surface protein in Campylobacter jejuni cell me

107 can be isolated as intermediates in quantum dot (QD) synthesis, and they provide pivotal clues in un

108 The effect of inhomogeneous quantum dot (QD) size distribution on the electronic transport o

109 We do this by placing a large quantum dot with 50-100 electrons between a pair of two-electron

110 odic regime characterizes mesoscopic quantum dot and diamond defect systems, as we see no numerical t

111 bles a new paradigm wherein molecule-quantum dot constructs are used to systematically generate mater

112 n metal oxide semiconductor (Si-MOS) quantum dot devices on a printed circuit board (PCB).

113 excitonic dynamics in an ensemble of quantum dot (QD) dimers are presented.

114 Precise patterning of quantum dot (QD) layers is an important prerequisite for fabrica

115 h enables patterning and printing of quantum dot arrays in omni-resolution scale; quantum dot arrays

116 h the flexibility and scalability of quantum dot systems.

117 Confocal microscopy of quantum dot-labeled plasmid uptake in vivo reveals association b

118 So far, most research on quantum dot electronic devices has focused on materials based on

119 However, previously reported quantum dot patterning technologies have limitations in demonstr

120 o powerful technologies is reported, quantum dot and signal amplification by exchange reaction (QD-SA

121 n important step towards large-scale quantum dot simulators of correlated electron systems.

122 dot arrays in omni-resolution scale; quantum dot arrays from single-particle resolution to the entire

123 totypical example is a semiconductor quantum dot separated from a gated contact by a tunnel barrier.

124 ear spin ensemble of a semiconductor quantum dot to the nuclear sideband-resolved regime.

125 thermoelectric response of a single quantum dot, and demonstrate how it can be used to deduce the en

126 trolled triplet energy levels of the quantum dot photocatalysts facilitate efficient and selective he

127 a strategy to coherently encode the quantum dot quantum state onto a mechanical degree of freedom(1)

128 We resonantly drive the quantum dot's exciton using a laser modulated at the mechanical

129 otogenerated carrier dynamics in the quantum dot-wetting layer-GaAs system.

130 the photon flux interacting with the quantum dot.

131 let-triplet energy transfer from the quantum dot.

132 a bright and photostable terbium-to-quantum dot (QD) Forster resonance energy transfer (FRET) nanopr

133 by means of a surface-acoustic-wave quantum dot(14), this method does not allow for a time-resolved

134 Quantum dots (QDs) of lead chalcogenides (e.g. PbS, PbSe, and Pb

135 Quantum dots (QDs; 1 to 10 nm) were recently synthesized by sol-

136 net spin in optically active WSe(2) quantum dots(13-17) and we initialize their spin-valley state wi

137 by using heavy-metal-free CuInSe(2) quantum dots, we can address the problem of toxicity and simulta

138 same spin-coated layer of CuInSe(2) quantum dots, we realize both p- and n-channel transistors and d

139 kite cesium lead bromide (CsPbBr(3)) quantum dots (QDs) as highly efficient wavelength shifters.

140 All quantum dots are simultaneous absorbers and scatterers in the UV

141 s were used to capture bacteria, and quantum dots (QD) bound to a second aptamer were utilized to qua

142 transfer between graphene oxide and quantum dots for determination of E. coli O157:H7 in beef and ri

143 different compositions (e.g., Au and quantum dots) and shapes (e.g., spheres and rods).

144 nanobelts, as well as nanosheets and quantum dots, via an oxygen-driven mechanism.

145 ing polymers based nanoparticles and quantum dots, which provide countless opportunities in the field

146 ces such as single-dye molecules and quantum dots, without bleaching or blinking.

147 Solid-state emitters(5), such as quantum dots and defects in diamond or silicon carbide(6-10), ha

148 low temperature, the pGNRs behave as quantum dots showing single-electron tunneling and Coulomb block

149 Self-assembled quantum dots grown by molecular beam epitaxy have been a hotbed

150 xperiments on neutral self-assembled quantum dots yield up to a five-fold increase in coherence of a

151 nalized tungsten disulfide (WS(2)-B) quantum dots (QDs) and its application for ferritin immunosensor

152 a performance comparable to Cd-based quantum dots is presented.

153 Also, charge sensing between quantum dots in closely spaced wires is observed, which underlin

154 ce while moving the electron between quantum dots.

155 devices and architectures enabled by quantum dots, metal nanoparticles, polymers, nanotubes, nanowire

156 luorescence (FL) intensity of carbon quantum dots (CQDs).

157 nitrogen and sulfur co-doped carbon quantum dots (N,S-CQDs) using citric acid and thiosemicarbazide.

158 olymer (MIP) coated on silica-carbon quantum dots (SiCQDs).

159 w that intravenously injected carbon quantum dots, functionalized with multiple paired alpha-carboxyl

160 xin B1 aptamer immobilized on Carbon quantum dots/octahedral Cu(2)O nanocomposite.

161 herences in the model system of CdSe quantum dots (QDs).

162 plication of cadmium selenide (CdSe) quantum dots (QDs) in improving the microelectronic characterist

163 Colloidal quantum dots (CQDs) are of interest in light of their solution-p

164 nophotonic structures with colloidal quantum dots (CQDs) faces several technological obstacles, as co

165 e describes some ways that colloidal quantum dots (QDs) address the limitations of molecular photocat

166 Colloidal quantum dots (QDs) are nanoscale semiconductor crystals with sur

167 Colloidal quantum dots (QDs) have shown promise over the last few decades

168 iconductors and lead based colloidal quantum dots face certain fundamental challenges that limit the

169 pin relaxation observed in colloidal quantum dots limits their functionality.

170 ed from solution-processed colloidal quantum dots.

171 Using calcite crystals containing quantum dots as a model system, we here use 3D stochastic optica

172 versely, in lithographically defined quantum dots, tunable interdot electron tunnelling allows direct

173 These 2-D layered material derived quantum dots are synthesized via one-step liquid exfoliation met

174 and pores), multidimensional design (quantum dots/wires, nanoparticles, nanowires, nano- or microbelt

175 etween a pair of two-electron double quantum dots that can be operated and measured simultaneously.

176 Epitaxial quantum dots (QDs) have long been identified as promising charge

177 Finally, quantum dots (QDs) were packaged with PKM2-null T cell EVs and a

178 resonance (LSPR) between fluorescent quantum dots (QDs) and adjacent gold nanoparticles (AuNPs) to pr

179 he optical properties of fluorescent quantum dots (QDs) is critical for their photochemical, -physica

180 tag rock phosphate with fluorescing quantum dots of three different colours.

181 The functionalized quantum dots (WS(2)-B QDs) were further explored for their possi

182 The functionalized quantum dots, which structurally mimic large amino acids and can

183 Driven by tensile strain, GaAs quantum dots (QDs) self-assemble on In(0.52)Al(0.48)As(111)A sur

184 Among them, InAs/GaAs quantum dots have shown great potential for applications in quan

185 al nonlinear properties of InAs/GaAs quantum dots, specifically the associated two-photon absorption

186 lectrode (GC) modified with graphene quantum dots (GQDs) and Nafion (NF) has been developed for the d

187 fluorescence fluctuation of graphene quantum dots (GQDs) and palladium nanoparticles (Pd NPs) for the

188 Graphene quantum dots (GQDs) are an allotrope of carbon with a planar sur

189 Here we show that graphene quantum dots (GQDs) can assemble into complex structures driven

190 Graphene quantum dots (GQDs), a novel type of zero-dimensional fluorescen

191 (-) due to the formation of graphene quantum dots (GQDs).

192 arded as atomically precise graphene quantum dots, as a new class of fluorophores for super-resolutio

193 rescent probe (sulfur doped graphene quantum dots, SGQDs) was designed for real-time detection of que

194 ntial on the surfaces of illuminated quantum dots and near fluorescing molecules.

195 r results establish nuclear spins in quantum dots as a powerful new resource for quantum processing.

196 mong these materials, colloidal InAs quantum dots (QDs) stand out as an infrared-active candidate mat

197 e-of-the-art nanomaterials including quantum dots and carbon nanotubes have demonstrated CM, but are

198 assigned to structures of individual quantum dots and the excitation dipoles were visualized in the c

199 on of the dark triplet excitons into quantum dots (QDs) where they can recombine radiatively, thereby

200 d Debaryomyces spp.) by TC or by its quantum dots.

201 face of dual-emission amino-modified quantum dots (QDs) nanohybrid via a Michael's type adduction, qu

202 While hole injection into neutral quantum dots is generally considered to be inefficient, we find

203 se the unique spectral properties of quantum dots (Qdots) to optimize and dually quantify VEGFR1 and

204 ptical and electronic performance of quantum dots (QDs) are affected by their size distribution and s

205 th the ground-state resonant peak of quantum dots appearing in the photoluminescence excitation spect

206 rmediate negatively charged state of quantum dots triggers confinement-enhanced Coulomb interactions,

207 ur-electron-site square plaquette of quantum dots(4) to demonstrate Nagaoka ferromagnetism(5).

208 o emergent properties in lattices of quantum dots, p-block clusters, and fullerenes.

209 Contrary to previous works based on quantum dots or nitrogen-vacancy centers in diamond, our proposa

210 Metal halide perovskite quantum dots (Pe-QDs) are of great interest in new-generation ph

211 antum yields, lead halide perovskite quantum dots (PQDs) are regarded as a promising candidate for va

212 ual colloidal lead halide perovskite quantum dots (PQDs) display highly efficient single-photon emiss

213 of colloidal lead halide perovskite quantum dots (PQDs) has generated tremendous interest in the com

214 Lead-halide perovskite quantum dots (PQDs) or more broadly, nanocrystals possess advant

215 ys based on all-inorganic perovskite quantum dots (QDs) are reported.

216 Cesium lead halide perovskite quantum dots (QDs) have gained significant attention as next-gen

217 made-to-measure inorganic perovskite quantum dots (QDs) in flow are autonomously synthesized, and the

218 Semiconducting quantum dots (QDs) and magnetic nanoparticles (MNPs) are co-disp

219 Compared to common semiconducting quantum dots, C-Dots have good physicochemical, as well as photo

220 demonstrated in III-V semiconducting quantum dots, has fueled research aimed at realizing quantum net

221 wavelengths, colloidal semiconductor quantum dots (QDs) are attractive materials for attaining this g

222 Colloidal semiconductor quantum dots (QDs) are attractive materials for realizing highly

223 Semiconductor quantum dots (QDs) have attracted tremendous attention in the fi

224 ion of excitons within semiconductor quantum dots (QDs) into states at the interface of the inorganic

225 d rich spin physics of semiconductor quantum dots (QDs) make them promising candidates for quantum in

226 design and synthesize semiconductor quantum dots (QDs) with SWIR emission based on Hg(x)Cd(1-x)Se al

227 y brightly luminescent semiconductor quantum dots (QDs), where both the assemblies and their immunoco

228 nomaterials, including semiconductor quantum dots and nanoplatelets, and metal plasmonic and reticula

229 In this regard, single semiconductor quantum dots are highly promising photon pair sources as they ca

230 to the integration of semiconductor quantum dots in thermally activated delayed photoluminescence (T

231 Spin qubit in semiconductor quantum dots is a promising candidate for quantum information pr

232 tion, while TF-labeled semiconductor quantum dots serve as bright fluorescent indicators of the TF-DN

233 dual electron spins in semiconductor quantum dots stand out for their long coherence times and potent

234 in silicon metal-oxide-semiconductor quantum dots the hyperfine interaction is sufficient to initiali

235 ical properties (e.g., semiconductor quantum dots, perovskite nanocrystals, and rare earth doped phos

236 lectron spin qubits in semiconductor quantum dots.

237 release using molecular sensitizers, quantum dots, and upconversion and second-harmonic nanoparticles

238 Ultrabright PbS/CdS core/shell quantum dots (QDs) with dense polymer coating are used to visual

239 stability (using CdSe/ZnS core shell quantum dots [QDs]) in ambient with 45% relative humidity.

240 admium sulfide (CdSe/CdS) core-shell quantum dots.

241 Here we show that silicon quantum dots can have sufficient thermal robustness to enable th

242 Electron spins in silicon quantum dots provide a promising route towards realizing the lar

243 gated, isotopically enhanced silicon quantum dots(6).

244 e/shell lead sulfide/cadmium sulfide quantum dots (PbS/CdS QDs) emitting at ~1600 nm.

245 ommercially available cadmium-sulfur quantum dots ("lumidots") show similar singlet oxygen quenching

246 y various aspects of the synthesized quantum dots.

247 al X-ray crystallography, shows that quantum dots (QDs) of [Na(4) Cs(6) PbBr(4) ](8+) (not of CsPbBr(

248 n and high tumour selectivity of the quantum dots make them broadly suitable for tumour-specific imag

249 ed on the molar concentration of the quantum dots.

250 the presence of toxic metals, these quantum dots are not well suited for applications in CMOS circui

251 etrical features (from thin films to quantum dots) enable their adoption in biomedical applications.

252 By tracking quantum dots of different dimensions for extended periods of tim

253 s Si (001) substrates by using III-V quantum dots.

254 lectrically controllable nuclei with quantum dots(11,12) could pave the way to scalable, nuclear- and

255 ta-cyclodextrin (beta-CD) capped ZnO quantum dots (QDs) were decorated with the vitamin B(6) cofactor

256 n describes the use of CuInS(2) /ZnS quantum dots (QDs) as photocatalysts for the reductive deprotect

257 odamine-dextran (TMR-D) and CdSe/ZnS quantum dots (QDs), are loaded in the inner and outer aqueous co

258 tion dipole orientation of CdSSe/ZnS quantum dots suspended in vitreous ice.

259 fy and isolate biosensing TFs, and a quantum-dot Forster Resonance Energy Transfer (FRET) strategy fo

260 omb formation in quantum-cascade and quantum-dot lasers.

261 ndo spectroscopy on state-of-the-art quantum-dot light-emitting diodes demonstrates that exciton gene

262 The optically pumped InAs/GaAs quantum-dot PC lasers exhibit single-mode operation with an ultr

263 , but it has not been implemented in quantum-dot spin qubits.

264 chable organometal-halide-perovskite quantum-dot LED with both high efficiency and mechanical complia

265 ng presentation of natural movies and random dot kinematograms (RDKs) reveals varied responsiveness t

266 nses to correlated and anticorrelated random dot correlograms (RDC) revealed that lateromedial area (

267 sented binocular gratings, as well as random dot correlograms (RDC).

268 ions were not different from those of random dots, reflecting the relative abundance of imaged BM pop

269 approach this problem by adapting the random-dot motion discrimination paradigm, classically used in

270 Visual stimuli were two random-dot patches moving in different directions.

271 tuation phase with a set of 3 or 9 small red dots, associated with a food reward.

272 ) derived from chemically synthesized Ag(2)S dots, on which a protective shell is grown by femtosecon

273 ging revealed the frequent presence of small dot opacities (27 eyes, 50%) in the cortex and nucleus o

274 protein assays including mass spectrometry, dot blots and Western blotting were developed to determi

275 To improve the response of standard dot blots, we have applied a new enhancement strategy th

276 tinct regulatory features including stripes, dots, and domains linking promoters-to-promoters (P-P) o

277 y-sighted observers as they fixated a target dot presented only to their dominant eye.

278 n morphologic RPD (53%) was more common than dot morphologic RPD (36%).

279 larity measures for two spectra, such as the dot product or the Euclidean distance between vectors th

280 arity at the intersection points between the dot trajectory and the tilted lines cause the illusion,

281 ly amplified by intermittently occluding the dot trajectory.

282 When the motion direction of the dot was not constant, however, the stimulus display did

283 ilted lines of alternating orientations, the dot appears to be moving up and down along its trajector

284 Here, we propose the dot-stripe mechanism for joint patterning, comprising tw

285 The dots changed in size, position and density from trial to

286 The dots were animated to reflect the velocity-based synchro

287 Here we "connect the dots" between the fundamental chemistry underpinning the

288 ally, we synthesize a model ('connecting the dots') in which both beta-cell stress and islet autoimmu

289 e of the direct two-photon absorption in the dots.

290 ps that include reward, thereby "joining-the-dots" between events that have not been observed togethe

291 relation with age or visual acuity and these dot opacities (p > 0.5) and they were not present in any

292 rt a study of the photoluminescence of these dots by using direct two-photon excitation.

293 e middle dot in a horizontal series of three dots presented on a touchscreen.

294 6a of this Article, the two dots corresponding to Cidea and S100b were erroneously m

295 The miriplatin ultrasmall dots developed from clinically-prescribed miriplatin may

296 atically prove that any embedding (that uses dot products to measure similarity) that can successfull

297 Using dot-blot and primer extension assays, we measured the su

298 Multiple evanescent white dot syndrome is a rare self-limiting condition of the ou

299 alternative diagnosis, including other white dot syndromes, syphilis, primary vitreoretinal lymphoma,

300 acular schisis (41.1% [26/56]), yellow-white dots (57.1% [32/56]), nummular pigmentation (85.7% [48/5