ライフサイエンスコーパス: bright

1 excited states that could be coupled to the bright (1)paipai* excited state.

2 oosting down-conversion by 9-fold to produce bright 1550 nm luminescence under 980 nm excitation.

3 he PL emission of these centers is extremely bright-50 times brighter than that of single-crystal ZnO

4 re randomized to receive either intermittent bright (~9,500 lux) light (IBL), continuous bright light

5 an be switched at room temperature between a bright and a dark state at the single-molecule level.

6 tissue optical imaging in mammals, but lacks bright and biocompatible probes.

7 onstrate optically induced switching between bright and dark charged divacancy defects in 4H-SiC.

8 contextual modulation of pDSGC activity for bright and dark contrasts.

9 arrow K') electron-electron scattering mixes bright and dark states of these complexes, and estimate

10 tional optical charge conversion between the bright and dark states of these defects.

11 r is a white dwarf, and which often generate bright and energetic stellar outbursts.

12 action with the integrin receptor provides a bright and fluctuating SERS signal that can be analyzed

13 These dyes are bright and fluoresce at long wavelengths (reaching epsil

14 hey are characterized by an initial phase of bright and highly variable radiation in the kiloelectron

15 These dyes show bright and intriguing emission (both fluorescence and la

16 Recently, bright and photostable single photon emitters were repor

17 engineered a GEVI, called Voltron, that uses bright and photostable synthetic dyes instead of protein

18 Here, a bright and photostable terbium-to-quantum dot (QD) Forst

19 l for the function of cone photoreceptors in bright and rapidly-changing light conditions.

20 As expected, the odd modes are optically bright and result in observed sEEG responses.

21 We developed a bright and sensitive Ca(2+) indicator by systematically

22 , we develop Peppers, a series of monomeric, bright and stable FRs with a broad range of emission max

23 for biosensing was limited due to a lack of bright and stable red fluorescent proteins.

24 s, with only cubic nanocrystals sufficiently bright and stable to be observed as single emitters.

25 fficient rate to make it electromagnetically bright and therefore, contrary to expectations, is gas-s

26 A bright and tumor-seeking donor-acceptor-donor (D-A-D) dy

27 nities for new sciences using near-parallel, bright and ultrafast electron beams for single-shot imag

28 tion states in the emerging research area of bright and ultrashort light sources, such as free-electr

29 ntify a transitional population between CD56(bright) and CD56(dim) NK cells.

30 eciated that two major NK cell subsets (CD56(bright) and CD56(dim)) exist in humans and have distinct

31 romoter demethylation can be induced in CD56(bright), and this process is facilitated by ascorbic aci

32 he enamel (internal cracks) were observed as bright areas.

33 rmed at unsuccessful leader branches, are as bright as the lightning leaders, and report several othe

34 cytometry experiments the NPs were twice as bright as two commercial anti-EpCAM red fluorophore conj

35 ogenous chromophore reduces rod responses at bright background.

36 Our interpretation of a bright basal reflection as the Timber Hill Basalt (~6 Ma

37 ng has been limited, in part, by the lack of bright, biocompatible contrast agents that absorb and em

38 corresponding mutants of NanoLuc that enable bright bioluminescence.

39 fluorescent protein CyOFP, has emerged as a bright bioluminescent reporter with orthogonal substrate

40 t, rod dark adaptation following exposure to bright bleaching light was significantly delayed in GRK1

41 of rod photoresponses following exposure to bright bleaching light.

42 c phosphine sensor is reported that exhibits bright blue fluorescence in the presence of gold(I/III)

43 The bright blue fluorescent suspension of g-C(3)N(4) NS was

44 ypridina luciferase with luciferin generates bright blue light which can be readily detected and anal

45 vided into functionally distinct CD3(-) CD56(bright) CD16(-) and CD3(-) CD56(dim) CD16(+) subsets.

46 0 and variable CD58 for NLPHL; minimal CD50, bright CD58 expression for CHL).

47 We could identify CB-LDG as CD66b(bright) CD64(high) CD16(low) CD35(low) CD10(low) S100A12

48 significantly over-represented in human CD56(bright) cells, by gene set enrichment analysis.

49 arrayed PL units (~2 nm), the dyes behave as bright chromophores (up to 180-fold brighter than the an

50 nt A. burtoni males possess large testes and bright coloration and perform aggressive and reproductiv

51 of pterin biosynthesis has been coopted for bright coloration in reptiles and indicating that these

52 t ARalpha, is required for testes growth and bright coloration, while ARalpha, but not ARbeta, is req

53 containing strong chromophores that lead to bright colors in the yellow to red region of the visible

54 ilibrium dynamics of driven coupled dark and bright condensates.

55 However, accessing bright CPPs with emissions beyond 500 nm remains difficu

56 Proportions of CD63(+) and CD203c(bright)CRTH2(+) basophils were decreased following LPP t

57 consistently identified a CXCR5-bright PD-1-bright (CXCR5BrPD-1Br) Tfh population in thoracic duct l

58 numerical results indicate the appearance of bright, dark and grey solitons dwelling in the vicinity

59 xis is revealed upon integration of the ALK3(bright+) dataset with a single-cell whole-pancreas trans

60 facilitates detection of spatial details on bright days and large dim objects on moonless nights.

61 We report a novel bright deep-blue-emitting crystal form based on a simple

62 (4-amino-3-hydroxyphenyl)squaraine core with bright deep-red fluorescence and excellent photostabilit

63 The unique combination of bright deep-red fluorescence, high stability, and predic

64 there be light: Chemiluminescence provides a bright detection signal against a dark background and of

65 rare-earth nanoparticles (ErNPs) exhibiting bright downconversion luminescence at ~1,600 nm for dyna

66 materials that bring the advantages of being bright, easy to synthesize, and metal-free when compared

67 Spectrally broad, bright emission from highly localized excitons, with qua

68 results in efficient energy transfer to and bright emission of hydroporphyrin in the deep-red (640-6

69 at the aggregation of this compound turns on bright emissions with ca. 27-fold fluorescence enhanceme

70 hese multicolor AGNPs are found to be highly bright, enabling them to perform high-contrast multichan

71 If they are representative of the bright end of the [C ii] luminosity function, then they

72 Also, persistent tags working in bright environments are not available.

73 Besides thermal-stimulation, in bright environments, photo-stimulation also contributes

74 at can act as self-sustained glowing tags in bright environments.

75 grey exciton that deviates from that of the bright exciton and other exciton complexes obtained at c

76 dark exciton to the intravalley spin-allowed bright exciton, permitting the simultaneous emission of

77 erties, including their near degeneracy with bright excitons and their formation pathways in the ener

78 the transition dipole moment orientation of bright excitons in the superlattices is predominantly in

79 Fast radio bursts (FRBs) are brief, bright, extragalactic radio flashes(1,2).

80 ent mechanism and source of Occator crater's bright faculae.

81 Thus, the spatial position of a bright feature, such as a celestial body, may be encoded

82 At the higher coverage, there are additional bright features which we identify as linear, independent

83 Subsequent delivery of super-bright femto-luminol with H(2)O(2) generates chemilumine

84 introduce quantitative image restoration in bright field (QRBF), a digital image processing method t

85 ble automated identification of particles by bright field imaging, followed by classification by SHG.

86 les, by taking advantage of data analysis of bright field microscopy images.

87 The particles appear core-shell like in bright field TEM images.

88 ization methodology composed of quantitative bright-field absorbance microscopy (QBAM) and deep neura

89 h complementary studies also performed using bright-field and polarised light microscopy, small-angle

90 nsic tissue phase map and the standard color bright-field image, familiar to the pathologist.

91 tions into images that are equivalent to the bright-field images of histologically stained versions o

92 ply, as the only experimental step comprises bright-field imaging of culture-media samples followed b

93 Specifically, we performed high-throughput bright-field imaging of numerous drug-treated and -untre

94 itative mathematical analysis of the dynamic bright-field imaging shows that defect clusters preferen

95 copy (e.g., multicolor fluorescence imaging, bright-field imaging), cell focusing, cell sorting, and

96 rtilization wild-type embryos, and uses only bright-field imaging, circumventing requirement for anes

97 Its system is identical to a standard bright-field microscope with a lamp and a camera - no la

98 e parameters per sample, using a traditional bright-field microscope-based flow assay allows only one

99 Schaub and colleagues combined quantitative bright-field microscopy and artificial intelligence (dee

100 methods to trace impregnated dendrites from bright-field microscopy images that enabled accurate 3-d

101 In-line bright-field microscopy images were captured for each sa

102 s, which is currently performed manually via bright-field microscopy, and toward the development of a

103 he sections were imaged with fluorescence or bright-field microscopy.

104 rganization of the crystals were examined by bright-field transmission electron microscopy and electr

105 High-resolution bright-field transmission electron microscopy and select

106 ening drug discovery platforms, for example, bright-field, phase contrast, and fluorescence microscop

107 ification of subcellular debris particles in bright-field-microscopy images.

108 A bright flash of illuminating light is required to acquir

109 following parameters: scotopic standard and bright-flash a-wave implicit times, photopic 30-Hz flick

110 y, increased qAF without flecks or with only bright flecks was associated with topographically relate

111 stain lipid droplets emitting an intense and bright fluorescence at the red channel.

112 annulated uracil derivative "(ts)T" exhibits bright fluorescence emissions in various solvents (epsil

113 aqueous solution of CCAT1 FIT-PNA results in bright fluorescence in a matter of minutes.

114 The bright fluorescent cytosine analogue tC(O) stands out am

115 -labeled semiconductor quantum dots serve as bright fluorescent indicators of the TF-DNA bound (on be

116 inserting an expression cassette encoding a bright fluorescent marker into the 3'-untranslated regio

117 us Gata3 reporter mice with an exceptionally bright fluorescent marker, allowed us to visualize allel

118 In this work, ultra-bright fluorescent silica nanoparticles (NPs) labels hav

119 he cyanine chromophore creates exceptionally bright fluorophores in the visible range.

120 The transmission stages are sufficiently bright for intra-vital imaging, flow cytometry and scala

121 far from the Earth are not affected by these bright foregrounds.

122 ithin the dark equatorial region of Cthulhu, bright frost containing methane is observed coating crat

123 A bright fundamental mode was obtained at lambda = 2.50-2.

124 e evidence obtained indicate that there is a bright future ahead for engineering nanomedicines and ma

125 ted data processing strategies, indicating a bright future for NTS.

126 ext-generation therapeutics, thus ensuring a bright future for research in this area.

127 study by von Kugelgen et al. highlights the bright future for such studies, seamlessly integrating n

128 recently garnerd FDA-approval, indicating a bright future for targeted small molecule therapeutics t

129 This suggests a bright future for these materials in applications such a

130 A bright future is ahead of the organometallic chemist, th

131 g of Pb tolerance of these two fungi sheds a bright future of applying them to remediate lead-contami

132 Our findings provide optimism for a bright future of fair and collaborative approaches that

133 han that of equivalently massive ultraviolet-bright galaxies at z > 3.

134 e we propose an all-optical scheme for ultra-bright gamma-ray emission and dense positron production

135 (XMM-Newton) revealed(4) an extended, X-ray-bright gaseous atmosphere with a virial temperature of 6

136 s of four different Bacteroides species show bright GFP fluorescence when grown nanaerobically versus

137 Bright gold clusters can penetrate deep tissue and can b

138 Immunohistochemistry staining revealed bright granular GBM staining for EXT1 and EXT2.

139 ndum of a dark grating relative to that of a bright grating.

140 rvations of very-high-energy emission in the bright GRB 180720B deep in the GRB afterglow-ten hours a

141 ized by the presence of golden-colored eyes, bright green bodies and delicate wings with dense venati

142 on of CP 3 in dry 1,2-dichloroethane affords bright green diamagnetic Co(III)(TPP)(N-py-DTDA(-)), 3b,

143 n Saturn's main ring system and accretion of bright icy particles or water vapor from volcanic plumes

144 to export Na(+) and synaptic Ca(2+) even in bright illumination.

145 t its status: Unlike other exoplanets, it is bright in the optical and nondetected in the infrared, a

146 ese cavities close to the Galactic plane are bright in X-rays(4-6).

147 led FRET-based structural measurements, as a bright internal label in microscopy, and for fluorescenc

148 rotons and neutralizing electrons induce the bright Kalpha emission observed and heat the Cu to 100 e

149 unoreporter, confer Cre-dependent sparse and bright labeling of thousands of neurons, astrocytes, or

150 Bright lead halide perovskite nanocrystals, which have b

151 bright (~9,500 lux) light (IBL), continuous bright light (CBL) or continuous dim (~1 lux) light (VDL

152 wever, the processes enabling cone vision in bright light (i.e. photopic vision) are not adequately u

153 (LD), dim light-at-night (DLAN) or constant bright light (LLbright).

154 exploring additive phase-shifting effects of bright light and exercise and health benefits.

155 ceptor cells, particularly cones, even under bright light conditions.

156 Bright light did not evoke changes in screening pigment

157 ensities and drives dopamine release at very bright light intensities.

158 Although bright light is regarded as the primary circadian zeitge

159 s define aspects of retinal function at very bright light levels.

160 hase PRCs are comparable to expectations for bright light of equal duration.

161 The COVID-19 pandemic has shone a bright light on the weaknesses in US infectious disease

162 t can occur when using a CCD to photograph a bright light source.

163 image-guided surgery can be performed under bright light, adding to its convenience and appeal in cl

164 bon than C(3) plants under high temperature, bright light, and low CO(2) conditions.

165 When exposed to bright light, living mice increase the rate of GTP and A

166 one photoreceptors mediate vision in dim and bright light, respectively, by transducing absorbed phot

167 Along with known synergism with bright light, the above PRCs with a second phase advance

168 otopic visual cycles for mediating vision in bright light.

169 r predator detection when surfacing again in bright light.

170 CE STATEMENT Dim-light achromatic vision and bright-light color vision are initiated in rod and sever

171 ice and littermate controls to dim-light vs. bright-light photophases to investigate the effects of a

172 subjected to enhanced positive selection for bright-light vision and relatively weak selection for di

173 which featured strong positive selection for bright-light vision.

174 chemistry, we show in the rabbit retina that bright-light-induced activation of dopamine D1 receptors

175 g conditions, and cones and melanopsin under bright lighting conditions.

176 Cracks appeared as bright lines with SS-OCT, with 3 crack patterns identifi

177 By identifying a bright, lipophilic fluorescence turn-on probe that enabl

178 Bright long-wavelength-excitable semiconducting polymer

179 Both bright LT and dim-red LT were associated with improvemen

180 Participants were randomized 1:1 to receive bright LT or dim-red LT (controlled condition) twice dai

181 7.88 [4.11] at baseline vs 6.25 [4.27] after bright LT, and 8.87 [2.83] at baseline vs 7.33 [3.52] af

182 [22.49] at baseline vs 106.98 [19.37] after bright LT, and 95.11 [19.86] at baseline vs 99.28 [16.94

183 inal HiBiT peptide (1.3 kDa), which produces bright luminescence upon high-affinity complementation w

184 With aluminum, bright mode resonances are tunable over tens or hundreds

185 Bright monomeric near-infrared (NIR) fluorescent protein

186 with scattered endogenic pits, troughs, and bright mounds indicative of outgassing of volatiles and

187 24 (nicknamed the "Sunburst Arc"), revealing bright, multiply imaged ionizing photon escape from a co

188 They display a bright NAD(P)H fluorescence signal and low uptake of vol

189 y for the bottom-up aqueous self-assembly of bright nanomaterials containing densely packed dyes.

190 an excite this charged state and recover the bright neutral state.

191 Compact, bright neutron sources are opening up several emerging a

192 k fluorescence in aqueous solution but emits bright NIR fluorescence at 725 nm after incubation with

193 is alteration generated a nonfunctional CD56(bright) NK cell subset characterized by low cytokine pro

194 s are densely methylated in less mature CD56(bright) NK cells and are progressively demethylated in C

195 PD-1 is expressed by CD56(dim) but not CD56(bright) NK cells and is confined to fully mature NK cell

196 T3 and Runx3 promoted KIR expression in CD56(bright) NK cells and NK-92 cells.

197 served within proximal KIR promoters in CD56(bright) NK cells cultured with ascorbic acid.

198 orbic acid to ex vivo culture of sorted CD56(bright) NK cells increased the frequency of KIR expressi

199 mutation exhibits reduced percentage of CD56(bright) NK cells with altered transcriptome and elevated

200 tional change in NK-cell subsets toward CD56(bright) NK cells.

201 The future is bright, not gloomy.

202 Quasars, which are exceptionally bright objects at the centres (or nuclei) of galaxies, a

203 naptic calcium to facilitate the encoding of bright objects, which in turn results from expressional

204 ient reorientation of LC and generation of a bright optical flash between crossed polarizers.

205 with experimental results and reveal that a bright optical pulse from the second pump is passively f

206 ns of TMD monolayers can be either optically bright or dark.

207 on is brisk, less sensitive, and operates in bright or photopic lights.

208 ranging from pale (colours 1 and 2), through bright orange (colours 3 and 4), to dark reddish-brown (

209 Bright orange livers, liver colours 3 and 4, were relate

210 Herein, we present a novel and bright orange-emitting CPP-based fluorophore showing a d

211 in blood, we consistently identified a CXCR5-bright PD-1-bright (CXCR5BrPD-1Br) Tfh population in tho

212 inetics limit visual temporal sensitivity in bright (photopic) lights, whereas mechanisms in the inne

213 Bright, photostable, and nontoxic fluorescent contrast a

214 Quantum dots (QDs) are extremely bright, photostable, nanometer particles broadly used to

215 The bright pink color developed due to ICT in the moderately

216 to a non-negligible population of the second bright pipi* state, which affects the dynamics, acting m

217 -latitude magnetic activity, such as coronal bright points and ephemeral regions, until the tsunami c

218 ted into immunodeficient mice, P2RY1(+)/ALK3(bright+) populations (enriched in PDX1(+)/ALK3(+)/CAII(-

219 Here, the bright potential of HOF materials as multifunctional mat

220 rea temporalis are specifically tuned for UV-bright prey capture in their upper frontal visual field,

221 ises a short (typically tens of seconds) and bright prompt emission, followed by a much longer afterg

222 es two X-ray pulses with time-delays, offers bright prospects for observing dynamics at the atomic-sc

223 ns undergo betatron oscillations, emitting a bright pulse of X-rays with a micrometer-scale source si

224 The bright, rapidly fading UV emission indicates a high mass

225 hotometric variability data to show that the bright, rapidly rotating giant star 2MASS J05215658+4359

226 The bright red appearance of soluble solid separated by high

227 sporting vividly orange-red natal plumage, a bright red beak, and other red parts around the face and

228 Subsequently, 6 lineages evolved bright red color and 2 lineages lost the color independe

229 e report that the Escherichia coli Fur has a bright red color when expressed in E. coli mutant cells

230 itive inhibitory rhodopsin, with mScarlet, a bright red fluorescent protein (FP).

231 Eleven observers wore bright red glasses for five 1-hr periods per day, for 5

232 In general, bright red products are obtained in moderate to good yie

233 a Na(+) selective fluoroionophore based on a bright red-emitting BODIPY chromophore.

234 an 1) and peach-almond hybrids (Cornerstone, Bright's Hybrid 5, and BB 106) were the most tolerant to

235 Bright salts at Vinalia Faculae form thin surficial prec

236 -time videos, the initial gaps appeared as a bright scattered area mainly on dentin floor and rapidly

237 Finally, most neurons in vLGN preferred bright shapes, whereas dark stimuli activate SC and driv

238 Exposure to even moderately bright short-wavelength light in the evening can strongl

239 ning plane normal (TPN) view (k(1)) and the 'bright side' (BS) view along the direction lambda(=k(1)

240 We show detected emission from bright single nitrogen vacancy centres hosted in the fab

241 orm through bi-molecular encounters and emit bright single-molecule fluorescence.

242 hibited the same progression from an initial bright singlet state (species I) to a delocalized dark s

243 reduce the energy gap between triplets and "bright" singlets, allowing thermal population exchange b

244 y all existing theoretical models of normal, bright SNIa require the explosion to produce a detonatio

245 components, mimicking the appearance of near-bright solitary waves over short timescales.

246 ion regime of the microresonator generates a bright soliton microcomb while another laser in the norm

247 ngle-cell RNA sequencing (scRNA-seq) of ALK3(bright+)-sorted ductal cells, a fraction that harbors BM

248 tle change in momentum, transform these to a bright source of MeV atoms.

249 compact, widely frequency-tunable, extremely bright source of terahertz radiation: a gas-phase molecu

250 able against a coherent coupling of dark and bright spin states.

251 inding events show up as diffraction limited bright spots against a dark background.

252 Given these bright spots and the relative immaturity of coastal mari

253 These bright spots clearly demonstrate restoration of coastal

254 service outcomes and identify where and why bright spots exist.

255 This reordering is manifest through bright spots of high fluorescence intensity that can be

256 Thus, bright spots resulting from the conjugates at the bottom

257 g fibrinogen looks to be partly built around bright spots that are attributed to the aggregate.

258 It also reveals 'bright spots' amongst the broad pattern of decline and-c

259 rics in coastal marine systems to highlight 'bright spots'.

260 We find numerous "bright spots," where herbivorous fish biomass, density o

261 figure was 98.2% for clusters and 48.2% for bright spots.

262 ces, which require optimized probes that are bright, stable, and small.

263 Here we report observations of the bright star HD 195689 (also known as KELT-9), which reve

264 of a vibrational wave packet on an optically bright state and its abrupt transition into a dark state

265 fs blue shift and decay of the Franck-Condon bright state arising from relaxation along the reactive

266 Reversible switching from bright-state ketones to dark-state hydrates, hemiacetals

267 nriched population of aldehyde dehydrogenase-bright stem cells, capable of reducing neurological defi

268 ave demonstrated potential to generate super-bright stimulated emissions even inside single cells.

269 drive escape responses, whereas vLGN prefers bright stimuli.

270 llows the pupil to respond quickly when that bright stimulus is subsequently brought into view.

271 Furthermore, an intention to act with a bright stimulus results in preparatory pupil constrictio

272 nanocomposites are luminescent and exhibit a bright, sub-second lifetime afterglow.

273 expansion of NK cells, particularly the CD56(bright) subset, and a lack of terminally differentiated

274 n tropical and semi-tropical mudflats, under bright sunlight and on moonless nights, suggesting that

275 d photophysical properties for this class of bright SWIR contrast agents.

276 e tool for labeling proteins with a minimal, bright tag in quantitative high-resolution imaging.

277 In AS mice, the bright(tdT) cell number increased and presented differen

278 In AS mice, dim(tdT) and bright(tdT) cells had different expression profiles of m

279 fied two subpopulations of GEC (dim(tdT) and bright(tdT)) based on the fluorescence intensity of the

280 leukemia (PML) bodies, represented as large bright telomere foci.

281 surface facing the nanotip was sufficiently bright to measure the diffusion-controlled positive feed

282 ely different Landau fan pattern compared to bright trions.

283 particle architecture for small (sub-20 nm), bright upconversion with several key features: (1) maxim

284 e, given that many anionic chromophores have bright valence states near the detachment threshold.

285 nts reveal an approximate 10 ns lifetime for bright valence states.

286 s show centimeters-thick, roughly meter-long bright veins.

287 than those in dLGN, and most cells preferred bright versus dark stimuli (Harrington, 1997).

288 ze deleterious energy back-transfer to yield bright visible emissions using low power density excitat

289 tage sensing to achieve fast, sensitive, and bright voltage sensing using two-photon (2P) illuminatio

290 Heliconius butterflies display bright warning patterns, which they also use to recogniz

291 olaser) with the ability to serve as a super-bright, water-soluble, biocompatible probe capable of ge

292 placebo light group, the group treated with bright white light experienced a significantly higher re

293 -induced choroidal neovascularization (CNV), bright white-light exposure, and Fam161a-associated inhe

294 BS, occurring after prolonged coincidence of bright winter days and temperatures close to -10 degrees

295 boreal forests with freezing temperatures on bright winter days puts the photosynthetic machinery in

296 rable strides with methodologies that employ bright X-rays, electron microscopy, and optical spectros

297 y synchronizable tobacco (Nicotiana tabacum) Bright yellow 2 (BY2) cell suspension to analyze mRNA, s

298 y images were analyzed for LRP, defined as a bright yellow block on the near-infrared spectroscopy bl

299 acid and contributed to a more saturated and bright yellow color, a better taste balance, and a more

300 likely to support visual prey capture of UV-bright zooplankton.