ライフサイエンスコーパス: multicolor

1 number of innovative solutions have emerged, multicolor 3D techniques still face significant technica

2 These multicolor AGNPs are found to be highly bright, enabling

3 rd template method, it is reported that such multicolor AGNPs can be accomplished.

4 TP-DSO will advance multicolor analysis for many applications.

5 This technique advances multicolor analysis significantly by resolving dyes with

6 h a reporter influenza virus (Color-flu) for multicolor analysis.

7 The multicolor and multiplexing capabilities of semiconducto

8 These materials emit multicolor and white light with high quantum yields (~2-

9 LSSmOrange allows numerous multicolor applications using a single-excitation wavele

10 fluorescent protein (mTFP1) for multiphoton, multicolor applications.

11 opulation of cells that are delineated using multicolor approaches.

12 In addition, a multicolor assay that uses four different fluorescently

13 This bottom-up method readily affords multicolor-banded crystals in gram quantity by varying t

14 applications in high-resolution bioimaging, multicolor barcoding, and driving multiple important pho

15 ns of the two iRFP chimeras enables combined multicolor bioluminescence imaging (BLI) and the respect

16 Here, we have developed a new multicolored bioluminescence-based reporter system that

17 s and enable stochastic, intersectional, and multicolor Brainbow labeling.

18 trate that NIR-GECO1 opens up new vistas for multicolor Ca(2+) imaging in combination with other opto

19 Furthermore, multicolor capabilities are shown with minimal cross-tal

20 Their use in multicolor cellular imaging (see scheme) and in tracking

21 Previously, multicolor chromatin labeling has been achieved using or

22 By combining retroviral-based multicolor clonal analysis with live imaging, the result

23 By integrating multiplex targeting, multicolor coding, and multimodal detection, our approac

24 Multicolor combinations of fluorescent proteins, such as

25 On the multicolor composite images, polyps appeared as dark gre

26 Using multicolor confocal intravital microscopy in mouse model

27 olecular interactions from single-channel or multicolor confocal laser-scanning microscopy (CLSM) ima

28 Multicolor confocal microscopy revealed that MM-associat

29 Here, using multicolor confocal microscopy, followed by computationa

30 raphy, a combination of 2 OCT protocols, and multicolor confocal scanning laser ophthalmoscopy (Spect

31 expression of a manipulated gene within the multicolor context to investigate mechanistic effects.

32 brain imaging, but currently lack efficient multicolor contrast modalities.

33 Moreover, using a multicolor Cre reporter line, we demonstrate that the re

34 Here, we use a multicolor Cre-dependent marker system to trace clonalit

35 We used multicolor Cre-reporter lineage tracing to show that mos

36 as prompted a flurry of exciting advances in multicolor CRISPR imaging, although color-based multiple

37 We demonstrate spatially resolved multicolor CsPbX3 (X = Cl, Br, I, or alloy of two halide

38 Multicolor CT enabled differentiation of Au-HDL, iodine-

39 s of spasers and PFPs in laser spectroscopy, multicolor cytometry, and theranostics with the potentia

40 es for on-chip holographic imaging, and (ii) multicolor detection for lensfree fluorescent on-chip mi

41 However, multicolor detection requires an intricate arrangement o

42 but there is limited spectral diversity for multicolor detection, and it remains a challenge to meas

43 An intrinsically soft and stretchable multicolor display and touch interface is reported.

44 sent key building blocks for high-resolution multicolor displays beyond current state-of-the-art tech

45 The method was successfully applied to multicolor DNA detection and the analysis of telomerase

46 ential applications of this platform include multicolor dPCR and massively parallel dPCR for next gen

47 We use multicolor, dual-penetration depth, total internal refle

48 totype is presented where light emission and multicolor electrochromism occur from the same pixel com

49 Multicolor electrophosphorescent organic light-emitting

50 Their multicolor emission from green to red and naked-eye-sens

51 study revealed the staining of the cell and multicolor emission in the presence of H2S.

52 materials that produce tunable organic-based multicolor emission is a challenge due to the inherent i

53 ntration and excitation wavelength dependent multicolor emission properties.

54 Multicolor emission was achieved simply by tuning the do

55 etric dual component sensor systems based on multicolor emissive upconversion nanoparticles (UCNP) an

56 We used multicolor evanescent wave fluorescence microscopy imagi

57 nm) allow their use in otherwise challenging multicolor experiments, e.g., when combining Ca(2+) unca

58 To address this, the current study used multicolor FACS of disaggregated tumor to systematically

59 lection substrate is cleaved are isolated by multicolor FACS with fluorescently labeled antiepitope t

60 We demonstrated multicolor fast volumetric imaging, single-molecule loca

61 Herein, we used various multicolor fate mapping systems to investigate the ontog

62 cardiomyocytes to the atrium in zebrafish by multicolor fate-mapping and we compare our analysis to t

63 Multicolor FISH analysis identified an array of breakpoi

64 In this study, use of a detailed multicolor FISH mapping procedure in pathologic specimen

65 omplex were stochastically labeled using the multicolor flip-out technique and a catalog was created

66 Our multicolor flow cytometric analyses of human decidual le

67 in 62 patients, all of whom had BM U-MRD by multicolor flow cytometry (sensitivity 10-4) at end-of-F

68 We used multicolor flow cytometry analysis of the same tumors to

69 Using multicolor flow cytometry and cell sorting, we observed

70 H2 and TH2/TH17 cells were analyzed by using multicolor flow cytometry and confocal immunofluorescenc

71 We used multicolor flow cytometry and IL-7 ELISA to investigate

72 We used multicolor flow cytometry and intracellular cytokine sta

73 neal dialysis (PD)-associated peritonitis by multicolor flow cytometry and multiplex ELISA, and defin

74 Multicolor flow cytometry and polymerase chain reaction

75 ells in chimpanzees with HCV infection using multicolor flow cytometry and real-time polymerase chain

76 Cell fate assays showed that multicolor flow cytometry and transcriptional profiling

77 lly passaged Brazilian ZIKV isolate and used multicolor flow cytometry and transcriptional profiling

78 kocyte subpopulations was performed by using multicolor flow cytometry and was combined with stimulat

79 By using a multicolor flow cytometry approach to analyze and charac

80 Quantitative, multicolor flow cytometry during a variety of NK cell ac

81 pulations using a combination of traditional multicolor flow cytometry gating, unsupervised clusterin

82 uring pregnancy and postpartum and performed multicolor flow cytometry in a subset of them.

83 al residual disease was assessed by means of multicolor flow cytometry in bone marrow (sensitivity, 1

84 We used multicolor flow cytometry in combination with bioinforma

85 Eosinophils were phenotyped by multicolor flow cytometry in digested lung tissue and br

86 Multicolor flow cytometry of peripheral blood mononuclea

87 d a thorough literature review, we developed multicolor flow cytometry panels to determine the surfac

88 Multicolor flow cytometry quantified the endothelial pro

89 Multicolor flow cytometry revealed a downregulation of e

90 u hybridization (Flow-FISH) for IFN-gamma to multicolor flow cytometry that allows for single-cell me

91 We used multicolor flow cytometry to analyze NK cells from the l

92 We used multicolor flow cytometry to evaluate activation (CD38+/

93 itial fibrosis, the hallmark of CKD, we used multicolor flow cytometry to identify, enumerate, and ph

94 We performed multicolor flow cytometry to investigate CD57(+) Fcepsil

95 We used multicolor flow cytometry to phenotype lymphocyte subpop

96 Multicolor flow cytometry was used to analyze the inflam

97 Multicolor flow cytometry was used to study the DC pheno

98 Here, we combine multicolor flow cytometry with highly efficient 3-dimens

99 infection along with metagenomics analyses, multicolor flow cytometry, and bisulfite pyrosequencing,

100 Airway inflammation was assessed by using multicolor flow cytometry, and bronchial hyperreactivity

101 yzed using MHC class II tetramer technology, multicolor flow cytometry, and RNA sequencing in a cohor

102 Leukocytes were phenotyped using multicolor flow cytometry, and whole-blood transcriptome

103 nding and 14 not responding to ipilimumab by multicolor flow cytometry, antibody-dependent cell-media

104 Multicolor flow cytometry, cell sorting and growth inhib

105 Using a large panel of Abs in multicolor flow cytometry, cell sorting, and RNA sequenc

106 We performed multicolor flow cytometry, high-coverage single-cell RNA

107 Using multicolor flow cytometry, we have uncovered robust hete

108 Using multicolor flow cytometry, we reliably detected IgE-expr

109 f Behcet's disease and sarcoidosis) based on multicolor flow cytometry.

110 lls were analyzed using quantitative PCR and multicolor flow cytometry.

111 s a wide age range (20 to 84 years) by using multicolor flow cytometry.

112 mph node and the site of the infection using multicolor flow cytometry.

113 the beads are pooled and rapidly analyzed by multicolor flow cytometry.

114 Using a multicolor flow-based approach, we identified six distin

115 Multicolor flowcytometric analysis had 82.4% sensitivity

116 Multicolor flowcytometric immunophenotyping was performe

117 of IOL, vitreous analysis was performed via multicolor flowcytometric immunophenotyping.

118 This MultiColor FlpOut (MCFO) approach can be used to reveal

119 Here we establish a new multicolor fluorescence fate mapping system to monitor m

120 Multicolor fluorescence images are acquired and analyzed

121 uminescence imaging (BLI) and the respective multicolor fluorescence imaging (FLI) of the iRFPs.

122 orrect interpretation and reproducibility of multicolor fluorescence imaging data, in particular unde

123 on of high-throughput cell microscopy (e.g., multicolor fluorescence imaging, bright-field imaging),

124 ttle or no repetitive elements as probes for multicolor fluorescence in situ hybridization (mcFISH),

125 By using a novel, advanced, multicolor fluorescence in situ hybridization approach,

126 lterations in this progression, we used four multicolor fluorescence in situ hybridization probe pane

127 4D atlas for vertebrate early embryos, using multicolor fluorescence in situ hybridization with nucle

128 copy numbers of eight breast cancer genes by multicolor fluorescence in situ hybridization, and targe

129 NeuroPAL worms share a stereotypical multicolor fluorescence map for the entire hermaphrodite

130 d distinguished multiple particle types with multicolor fluorescence microscopy and automated image a

131 FP series, have become invaluable probes for multicolor fluorescence microscopy and in vivo imaging.

132 processing, and RNA localization provided by multicolor fluorescence microscopy are reviewed.

133 We used single-molecule millisecond multicolor fluorescence microscopy of live bacteria to r

134 detection and characterization of very weak multicolor fluorescence produced by mixtures of various

135 methylated DNA molecules using simultaneous, multicolor fluorescence to identify methyl binding domai

136 Multicolor fluorescence-activated cell sorting could iso

137 We used multicolor fluorescence-activated cell sorting to isolat

138 nsport and its regulation using mutagenesis, multicolor-fluorescence microscopy, and multiplex genome

139 9(+) mouse liver cells at low density with a multicolor fluorescent confetti reporter.

140 Here, we present a new multicolor fluorescent fate mapping system and quantific

141 We used sensitive multicolor fluorescent in situ hybridization to generate

142 Multicolor fluorescent labeling of both intra- and extra

143 plexing approaches for wide-field imaging of multicolor fluorescent objects on a chip.

144 one-step method for the synthesis of bright, multicolor fluorescent sulphur doped carbon dots (CNDs)

145 gy to produce pH-tunable, highly activatable multicolored fluorescent nanoparticles using commonly av

146 While numerous multicolored fluorescent protein (FP) probes have reveal

147 Using multicolored fluorescent reporter lines, we track and pu

148 ng cells in all 20 COVID-19 patients using a multicolor FluoroSpot Assay.

149 Hybridization assays in the multicolor format provided a limit of detection of 90 fm

150 scope platform, OMX, that enables subsecond, multicolor four-dimensional data acquisition and also pr

151 nometer lateral resolution for more than 100 multicolor frames, and nonlinear SIM with patterned acti

152 demonstrate that Cal-590 is also suited for multicolor functional imaging experiments in combination

153 Cal-590 can be readily used for simultaneous multicolor functional imaging experiments.

154 usen as visualized by cSLO infrared (IR) and MultiColor (Heidelberg Engineering, Heidelberg, Germany)

155 Multicolor high-resolution confocal microscopy and optog

156 Multicolor, high-resolution microscopy permits detailed

157 This multiangle and multicolor illumination scheme permits us to dynamically

158 gn, higher light throughput and simultaneous multicolor illumination.

159 eously by eye under the microscope, yielding multicolor images of multiple cellular antigens in real

160 The Hayabusa2 spacecraft has obtained global multicolor images of Ryugu.

161 he features of the lesion components seen on multicolor images were compared with those detected usin

162 he methods that quantify colocalization from multicolor images, image cross-correlation spectroscopy

163 ence microscopy, it is inherently capable of multicolor imaging and optical sectioning and, with suff

164 describe the features of PCV detected using multicolor imaging and to compare these with standard co

165 ly higher photostability allowing its use in multicolor imaging applications to track dynamics of mul

166 Furthermore, both 3D and multicolor imaging are readily achievable.

167 Using simultaneous multicolor imaging at individual synapses, we could show

168 Multicolor imaging based on genetically encoded fluoresc

169 h between two contrast agents referred to as multicolor imaging because, when measuring in three or m

170 The appearance of PCV lesions on multicolor imaging differs from standard CFP, although t

171 The features of PCV seen on multicolor imaging have not been studied.

172 onsistently on near-infrared reflectance and MultiColor imaging in all 36 eyes at every imaging encou

173 rabow (Zebrafish Brainbow) tools for in vivo multicolor imaging in zebrafish.

174 Other clinical features detected using multicolor imaging included PEDs (26%), subretinal hemor

175 Multicolor imaging is a novel noninvasive imaging method

176 Multicolor imaging is a useful, noninvasive adjunct to d

177 Multicolor imaging is able to detect polypoidal lesions

178 n Danio rerio larvae and spatially isotropic multicolor imaging of fast cellular dynamics across gast

179 Thus, Pro12A will enable accurate multicolor imaging of lipid organization of cell plasma

180 solution microscope that enables ratiometric multicolor imaging of mammalian cells at 5-10-nm localiz

181 uences they target and allows for single and multicolor imaging of regions ranging from tens of kilob

182 ational palette presented here thus opens up multicolor imaging of small biomolecules, enlightening a

183 Our data suggest that Pdots will support multicolor imaging on a smartphone in an optimized assay

184 We demonstrate tridimensional (3D) multicolor imaging over several cubic millimeters as wel

185 the macula on near-infrared reflectance and MultiColor imaging that occurs predominantly in pseudoph

186 Consistently, our multicolor imaging underlined a strong correlation betwe

187 S-mKates and blue-green fluorophores enables multicolor imaging using a single laser.

188 ght-sheet along the sample surface, enabling multicolor imaging with high spatiotemporal resolution.

189 and the previously engineered iRFP713 allow multicolor imaging with spectral unmixing in living mice

190 uorescence (FAF), near-infrared reflectance, MultiColor imaging, and spectral-domain optical coherenc

191 ng standardized protocols, and included CFP, multicolor imaging, fluorescein angiography, and indocya

192 ntensiometric measurements, compatibility in multicolor imaging, large dynamic ranges, and relatively

193 ective spot on near-infrared reflectance and MultiColor imaging, located at the macula, nasal or supe

194 es, and is sufficiently red-shifted to allow multicolor imaging.

195 aser ophthalmoscope infrared reflectance and MultiColor imaging.

196 reasing the imaging field of view, and using multicolor imaging.

197 into six different energy bins was used for multicolor imaging.

198 Multichannel (multicolor) imaging has become a powerful technique in b

199 on a paper-based platform is presented using multicolor immobilized quantum dots (QDs) as donors in f

200 For the development of the multicolor immunochromatographic test, we used antibodie

201 l cells in prenatal human skin in situ using multicolor immunofluorescence and analyzed angiogenic mo

202 ere phenotypically characterized by means of multicolor immunofluorescence labeling.

203 We have successfully mapped by multicolor immunofluorescence the localization pattern o

204 ed controls were analyzed using simultaneous multicolor immunofluorescence.

205 Multicolor immunohistochemistry identified cells coexpre

206 he perinodular K19 epithelial loss; however, multicolor immunolabeling for K19, vimentin, E-Cadherin,

207 Using multicolor in vivo confocal microscopy, we found that Co

208 Multicolor ISM was shown on cytoskeletal-associated stru

209 We combine multicolor labeling (Brainbow) of neurons with multi-rou

210 itates robust cotransduction and stochastic, multicolor labeling for individual cell morphology studi

211 based fluorescence labeling strategy for the multicolor labeling of distinct subcellular compartments

212 ferently colored dCas9/sgRNA complexes allow multicolor labeling of target loci in cells.

213 In this article, we quantitatively establish multicolor labeling strategies for UTP-enriched transcri

214 In the transgenic multicolor labeling strategy called 'Brainbow', Cre-loxP

215 formation could promote applications such as multicolor lasers, broadband memories, and multiwaveleng

216 Here, we constructed a multicolor lentiviral TALE-Kruppel-associated box (KRAB)

217 ted optical waveguide mixer that can deliver multicolor light at a common waveguide port to achieve m

218 Here we introduce a novel multicolor light sheet fluorescence microscopy (LSFM) ap

219 Using multicolor lineage labeling, we demonstrate that VSMCs i

220 Here, we performed clonal multicolor lineage tracing of skeletal muscle stem cells

221 In this study, we used multicolor lineage tracing to demonstrate that polyclona

222 e first one based on statistical analysis of multicolor lineage tracing, allowing the definition of m

223 Using multicolor lineage-tracing and organoid-formation assays

224 Herein we use multicolor lineage-tracing models to confirm that the ma

225 The multicolor live cell imaging experiments in HeLa cells s

226 ation precision, ultrahigh-labeling density, multicolor localization microscopy in samples up to 20 m

227 Herein we describe a multicolor, long-term (>24 h) imaging strategy for measu

228 Such systems with convertible multicolor luminescence might exhibit application potent

229 challenge of achieving the photoswitching of multicolor luminescence on unimolecular platforms, we he

230 udes of applied force, resulting in gradient multicolor mechanochromism.

231 (FPs) are in high demand as protein tags for multicolor microscopy and in vivo imaging.

232 raffin-embedded (FFPE) tissues, we developed multicolor miRNA FISH.

233 are readily identified and reliably sized in multicolor mixtures of large and small beads.

234 light at a common waveguide port to achieve multicolor modulation of the same neuronal population in

235 less operation of independently addressable, multicolor mu-ILEDs with fully implantable, miniaturized

236 ic, green-fluorescent sensor ZP1 can perform multicolor/multianalyte microscopic imaging.

237 of individual cultured mammalian cells using multicolor multicycle immunofluorescence with quantum do

238 S) microscopy, a method integrating one-shot multicolor multiphoton excitation through wavelength mix

239 Incubation of a mixture of multicolored nanoparticles with human H2009 lung cancer

240 e shifts (<40 nm) and established a panel of multicolored nanoparticles with wide emission range (500

241 We developed a multicolor neuron labeling technique in Drosophila melan

242 R1, with a red-shifted absorption suited for multicolor optogenetic experiments in combination with b

243 be used to encrypt and selectively disclose multicolor patterns for anticounterfeiting applications.

244 This multicolored, pH-tunable nanoplatform offers exciting op

245 reversible transition was observed between a multicolor (phase-separated) and a single-color (mixed)

246 g of a carbon fiber-ZnO hybrid nanowire (NW) multicolor photodetector is driven by a microbial fuel c

247 Multicolor PLEDs were also demonstrated by taking advant

248 Multicolored polyploid hepatocytes undergo ploidy reduct

249 By developing multicolor probes, we showed that most polysomes act ind

250 electroactive and electrochromic materials, multicolored proof-of-concept electrochomic devices were

251 eneity and rarity problem, we have developed multicolor QD-antibody conjugates to simultaneously dete

252 These properties of QDs allow multicolor QDs to be excited from one source by common f

253 design in terms of relative concentration of multicolor QDs.

254 Candida QuickFISH BC, a multicolor, qualitative nucleic acid hybridization assay

255 Here, we combine a multicolor quantum dot (QD)-based immunofluorescence ass

256 mRNAs and their corresponding proteins with multicolor quantum dots.

257 , magnetic enrichment, signal amplification, multicolor recognition, and feedback control, could be u

258 e achieve pixels with polarization dependent multicolor reflection on mirror-like surfaces.

259 Here, we developed a multicolor reporter allele system to genetically label a

260 Multicolor reporter analysis revealed that Nkx2-5-null c

261 , the combination of inducible recombinases, multicolor reporter constructs, and live-cell imaging ha

262 Here, we use clonal cell labeling with multicolor reporters to characterize individual mesenchy

263 Using multicolor retrograde tracing we determined the density,

264 y of metal halide perovskites to demonstrate multicolor reversible chromism.

265 of reliable clinical laboratory- compatible multicolor RNA FISH methodology for molecular diagnostic

266 We recorded multicolor SIM images in 20-mum thick brain slices to id

267 SOM can be used, unsupervised, to produce a multicolor similarity map of the analysis area, in which

268 stablished an experimental approach based on multicolor single-molecule fluorescent in situ hybridiza

269 Multicolor single-molecule localization super-resolution

270 purified fascin bound directly to Daam1, and multicolor single-molecule TIRF imaging revealed that fa

271 uorescence activated cell sorting (FACS) for multicolor sorting to simultaneously screen for affinity

272 Through the use of multicolor stimulated emission depletion microscopy, we

273 acellular molecular vibrations via ultrafast multicolor stimulated Raman scattering (SRS) microscopy

274 These tools enable efficient multicolor stochastic labeling of neurons at both low an

275 d and demonstrated the utility of proExM for multicolor super-resolution ( approximately 70 nm) imagi

276 -caging strategy was further demonstrated by multicolor super-resolution imaging of lipid droplets an

277 use of multifocus microscopy for volumetric multicolor superresolution imaging.

278 ssue at single-cell resolution, we created a multicolor system, skinbow, that barcodes the superficia

279 Together, our results suggest that this multicolor TALE-KRAB vector platform is a promising and

280 We showed that this multicolor TALE-KRAB vector system when combined togethe

281 Multicolor three-dimensional (3D) superresolution techni

282 methods have been extended to live cells and multicolor, three-dimensional imaging, thereby providing

283 Using multicolor, three-dimensional stochastic optical reconst

284 first example of a one-donor/three-acceptor multicolor time-resolved fluorescence energy transfer (T

285 Here, multicolor TIRF microscopy was applied to visualize and

286 When used for the automated analysis of multicolor, tissue-microarray images, SFT correctly foun

287 Here, using multicolor total internal reflection fluorescence micros

288 Here, we used multicolor total internal reflection fluorescence micros

289 Here, we used multicolor total internal reflection fluorescence micros

290 achieve this in C. elegans by engineering a multicolor transgene called NeuroPAL (a neuronal polychr

291 We directly observed multicolored tumor cell clusters across major stages of

292 nal microrods as the template enables facile multicolor tuning in a single crystal, which is inaccess

293 Developing multicolor upconversion nanoparticles (UCNPs) with the c

294 Here we report the design of multicolor versions of CRISPR using catalytically inacti

295 r red fluorescent protein variants, allowing multicolor visualization of cellular markers and secrete

296 ains, smFP probes allowed robust, orthogonal multicolor visualization of proteins, cell populations a

297 Here, we developed a method of two-photon multicolor vital imaging to observe competitive eliminat

298 roscopy (SIM or3D-SIM, respectively) enables multicolor volumetric imaging of fixed and live specimen

299 We applied this system to multicolor volumetric imaging of processes sensitive to

300 the super-resolution technique of choice for multicolor volumetric imaging.