ライフサイエンスコーパス: microbead

1 racking the surface flow of apically applied microbeads).

2 plysia cell adhesion molecule (apCAM)-coated microbead.

3 n or direct force application using magnetic microbeads.

4 gle-cell genomic DNA onto the coencapsulated microbeads.

5 not compromised by the low concentration of microbeads.

6 d by magnetic bead sorting via EPCAM labeled microbeads.

7 d in solution or immobilized on paramagnetic microbeads.

8 s into multivalent complexes using protein A microbeads.

9 ices (cGMP)-grade anti-biotin immunomagnetic microbeads.

10 forces transmitted via spot-labeled magnetic microbeads.

11 trapping and mixing of solid-phase affinity microbeads.

12 ort, and detect individual superparamagnetic microbeads.

13 cture for supporting antibody-functionalized microbeads.

14 polyacrylamide gel embedded with fluorescent microbeads.

15 obtained through viscous sintering of glass microbeads.

16 rticles, polymer capsules and semiconducting microbeads.

17 were isolated using antibody-linked magnetic microbeads.

18 d optical access to the chemically sensitive microbeads.

19 , viability, or ability to phagocytize latex microbeads.

20 mall (100-200 microm) polymeric methacrylate microbeads.

21 sulted in rolling behavior similar to PSGL-1 microbeads.

22 acrylamide substrates containing fluorescent microbeads.

23 many personal care products contain plastic microbeads.

24 o form a hairpin structure and conjugated on microbeads.

25 tination of aptamer coated magnetic nano- or microbeads.

26 boflavin, amino acids and peptides from whey microbeads.

27 fic oligonucleotide probes bound to magnetic microbeads.

28 This paper focuses on encoding polystyrene microbeads, 10-100 microm in diameter, with a luminescen

29 ting process has been characterized by using microbeads (10microm diameter) resulting in a single bea

30 ed for single-cell analysis using Wnt-coated microbeads (12-18 h of live imaging) and to create a Wnt

31 ions of riboflavin were obtained in 'loaded' microbeads (361 mg/L) compared to riboflavin added to th

32 We have bonded glass microbeads (425-600 microm diameter) to the inner walls

33 FM probes with an attached N-cadherin-coated microbead (5 mum) induced a progressive clustering of N-

34 TentaGel microbeads (90 mum) were spatially segregated into outer

35 TentaGel microbeads (90 mum) were spatially segregated into outer

36 As the volume of microbeads added to the solution was increased, the upta

37 Passive microbead affinity for WT and SPARC-null ECM did not dif

38 The microbeads allowed mapping of flow patterns and velociti

39 ric (FC) XM, and seven had DSA detectable by microbead analysis only.

40 nd reproducible functionalization of encoded microbeads and a high stability of DNA probes in cell-fr

41 e-coded mixture of multiple affinity-capture microbeads and an inertial microfluidic particle sorter

42 al tracking of collisions between insulating microbeads and an ultramicroelectrode surface are correl

43 Using fluorescent microbeads and antihepsin treatment, we demonstrated tha

44 innate immunity by clearance of fluorescent microbeads and bacterial particles.

45 n and encapsulation of primer functionalized microbeads and cells.

46 el pad array units for the immobilization of microbeads and each gel pad array is surrounded with a P

47 tro in response to anti-CD3-anti-CD28-coated microbeads and IL-2.

48 haracterizing the antibacterial copper-doped microbeads and monoliths (CuBs and CuMs), their antibact

49 o reconcile dissociation constants of PSGL-1 microbeads and neutrophils on P-selectin was 0.21 microm

50 evaluate PSGL-1/P-selectin bond kinetics of microbeads and neutrophils, rolling and tethering on P-s

51 The device was used to separate polystyrene microbeads and PC-3 human prostate cancer cells with 94.

52 ded in different density solutions, CsCl for microbeads and Percoll for cells.

53 y photobleaching of the dyes attached to the microbeads and presents one of the biggest drawbacks of

54 ty) of previously well-characterized polymer microbeads and subsequently applied to determine the den

55 tly, the frequency of collisions between the microbeads and the electrode is not compromised by the l

56 e nature of the interactions between flowing microbeads and their influence on electrochemical proces

57 containing PDMS in the form of both precured microbeads and uncured liquid precursor, dispersed in wa

58 reptavidin-coated polyvinyltoluene (PVT) SPA microbeads and using [(125)I]IGF-1 as the endogenous lig

59 Finally, using anti-TCR-Vbeta8-coated microbeads and Vbeta8(-) Tregs, we show that TCR stimula

60 sition delivered approximately 16 times more microbeads and yielded approximately 20% more bacteria k

61 fluorescent microspheres, quantum dot-based microbeads, and fluorescent nano rods, some of which cur

62 rmed cylindrical plugs, preformed injectable microbeads, and hydrogel precursor, injected and polymer

63 eating with chemical lysis buffer and silica microbeads are employed for DNA extraction from clinical

64 The microbeads are fabricated by adsorbing fluoresceinamine

65 The PDMS microbeads are held together in thixotropic granular pas

66 c powder-containing enzyme-carrying alginate microbeads are immobilized on the surface of an electrol

67 To select for catalysis the microbeads are re-emulsified in a reaction buffer of cho

68 The DNA capture probe containing microbeads are selectively arranged in micromachined cav

69 When the microbeads are subjected to DCP vapor, the conversion of

70 No significant response is observed when the microbeads are subjected to other nerve agent simulants,

71 Fluorescently encoded microbeads are subsequently functionalized by lesion-con

72 When whey microbeads are used as sorbents, they show excellent pot

73 Microbeads are used to track fluid flow over microband e

74 Whey microbeads are well suited to act as sorbents for encaps

75 Magnetic microbeads are widely used in biotechnology and biomedic

76 ngle cells, along with primer-functionalized microbeads, are randomly compartmentalized in the drople

77 ment of single human leukocyte antigen (HLA) microbead array assays allows characterization of host a

78 The power and utility of this microbead array DNA detection methodology is demonstrate

79 ol for common biolabs to customize their own microbead array for multi-analyte immunoassays.

80 ely 10(-13) M are obtained readily with this microbead array system.

81 development of more versatile and economical microbead array-based multiplex serological test panels

82 compared with that of a trapped polystyrene microbead as a function of the applied acoustic pressure

83 we describe the use of colloidal polystyrene microbeads as a sacrificial template to create a nanofib

84 ling circle amplification (RCA) and magnetic microbeads as a signal enhancement method.

85 monstrate that the autoassembly of alternate microbeads as well as their directed assembly, by using

86 oth PCV2 and PRRSV were used to validate the microbead assay (MBA) in comparison with the "gold stand

87 -specific antibody responses measured by the microbead assay were comparable to those of the standard

88 posttransplant DSA peaking at MFI >2000 U on microbead assay, rejection did not occur.

89 c antibody (DSA) level of more than 500 in a microbead assay.

90 tokines by immunohistochemistry, RT-PCR, and microbead assays.

91 lant, DSA levels were monitored closely with microbead assays.

92 n the cell monolayer produced by forcing one microbead attached atop a single cell or cell monolayer

93 uction of gold nanoparticles coated magnetic microbeads (Au NPs-MBs), which were prepared through a n

94 netics of blood flow recovery that resembled microbead-based blood flowmetry and laser Doppler blood

95 abeling sequences, and finally detected with microbead-based FFD assays.

96 infection status and a multiplex fluorescent microbead-based immunoassay and/or enzyme-linked immunoa

97 e and miniaturized immunoassay by coupling a microbead-based immunoassay with an interdigitated array

98 ere quantified using comprehensive multiplex microbead-based immunoassays for 46 immune mediators.

99 ne mediators were quantified using multiplex microbead-based immunoassays.

100 brain cells were measured simultaneously in microbead-based immunoassays.

101 y chip for high-throughput and multi-analyte microbead-based immunoassays.

102 The approach employs a microbead-based protocol for the processes of affinity s

103 Stringent magnetic microbead-based purification was required for potent sup

104 ust and inexpensive electrochemical magnetic microbeads-based biosensor (EMBIA) platform for PoC sero

105 ffects, and limited diffusion lengths in the microbead bed.

106 er cells with 94.7 and 1.2% of the cells and microbeads being deflected, respectively.

107 ectrophoresis, we used silica or polystyrene microbeads between 3-6 mum in diameter and packed them i

108 Silica microbead bioreactors (0.5 microm diameter) coated with

109 ges to the cytoskeleton by applying force to microbeads bound to integrin using magnetic pulling cyto

110 nN) were applied to magnetic laminin-coated microbeads bound to NIH 3T3 cells.

111 lavin loss, a second approach to 'load' whey microbeads by soaking in riboflavin was assessed.

112 ndependently released and recovered from the microbeads by treatment with 0.1 N NaOH; (4) multiple an

113 tte technique, spherical, glassified protein microbeads can be made that allow determination of prote

114 ranching networks in which superparamagnetic microbeads can be routed along dynamically-selected path

115 We propose that MAM7-functionalized microbeads can be used as a topical treatment, to reduce

116 These microbeads can then be selected for catalysis or binding

117 uorescence-activated cell sorting (FACS) for microbead+,CD45(low) cells.

118 eads followed by FACS for specifically bound microbead+,CD45(low) cells.

119 Binding of microbeads coated with a function-blocking antibody to N

120 ed at controlled densities on the surface of microbeads coated with a phospholipid mixture resembling

121 l-free flow-based adhesion experiments using microbeads coated with CD44 immunoprecipitated from carc

122 assays and flow-based adhesion assays using microbeads coated with CEA immunopurified from LS174T co

123 FLA) onto carboxylate-functionalized polymer microbeads coated with poly(2-vinylpyridine) (PVP).

124 re identified in sera of healthy males using microbeads coated with recombinant denatured HLA-E or a

125 In our experiment, microbeads coated with streptavidin were driven to the s

126 es labeled with biotin were immobilized onto microbeads coated with streptavidin.

127 Fluorescence images of the microbead column revealed captured bacteria as bright sp

128 Microbeads conjugated directly to antibody specific to L

129 evice, and a suspension of superparamagnetic microbeads conjugated to DNA molecules is introduced int

130 ule ends can be reconstituted in vitro using microbeads conjugated to the budding yeast kinetochore p

131 Injections of fluorescent microbeads conjugated with a light-sensitive chromophore

132 Furthermore, FST-loaded microbeads decreased bone ossification in developing chi

133 spray was able to deliver significantly more microbeads deeper in the biofilm compared with diffusion

134 d hydrogels were fully degraded within 2 wk; microbead degradation was more moderate, and plugs degra

135 These results indicate that the microbead device is a low-cost tool that enhances sample

136 n techniques, enzyme-based immunoassays, and microbead diagnostics.

137 acquired videos of single beating cells, of microbead displacement during contractions, and of fluor

138 microwells filled with ion-exchange polymer microbeads doped with various organic dyes.

139 ional element for selective antibody-coated, microbead-driven, large-scale expansion.

140 d with commercially available immunomagnetic microbeads (Dynabeads((R)) anti-Salmonella), polystyrene

141 First, microbeads, each displaying a single gene and multiple c

142 used to prepare epoxide-functionalized glass microbeads (EGBs, 500 mum in size and manipulated by twe

143 For mice, a single 1-microL injection of microbeads elicited a highly regular 30% elevation in IO

144 hnique is first applied to match the pair of microbead embedded images before and after deformation,

145 Here we report the development of silica microbeads embedded with both semiconductor quantum dots

146 A proof-of-concept superparamagnetic microbead-enzyme complex was integrated with microfluidi

147 Magnetic microbeads exhibit rapid separation characteristics and

148 rate of 2 muL/min, as characterized through microbead experiments, while maintaining measurement acc

149 than 24,000 images of 0.5 microm fluorescent microbeads flowing within mildly inflamed postcapillary

150 o create reaction geometries that confined a microbead flux to within 200 nm of the surface under flo

151 ve the outcome by using biodegradable fibrin microbeads (FMBs) to isolate a population of mesenchymal

152 ed by acoustic streaming (h >> lambdaf), the microbeads follow vortical streamlines in a pattern char

153 tion with D7-FIB-conjugated (antifibroblast) microbeads followed by FACS for specifically bound micro

154 61 mg/L) compared to riboflavin added to the microbead forming solution (48 mg/L).

155 Riboflavin was added to the microbead forming solution however diffusional losses of

156 The United States Microbead-Free Waters Act was signed into law in Decembe

157 was created for the capture of solid silica microbeads functionalized with enzyme.

158 In this method, microbeads functionalized with multiple forward primers

159 e show that topical application of polymeric microbeads functionalized with the adhesin MAM7 to a bur

160 loped an in vitro actin assembly assay using microbeads functionalized with the nucleation promoting

161 arker) and anti-CD34 (EPC marker) conjugated-microbeads had the highest sensitivity and specificity f

162 RBCs were trapped directly (i.e., without microbead handles) in the dual optical tweezers where th

163 composed of individually addressable agarose microbeads has been demonstrated for the rapid detection

164 taneously pack multiple channels with silica microbeads having different sizes and surface properties

165 On both RBCs and microbeads, human CD47 potently inhibits phagocytosis as

166 cking velocimetry (PTV) or by processing the microbead images by particle image velocimetry (PIV) sof

167 of four automated immunoassays (BioPlex 2200 microbead immunoassay [MBIA], Liaison chemiluminescence

168 serum samples of H7N9 patients by multiplex-microbead immunoassays.

169 ed stored sera with HLA bound to polystyrene microbeads in a retrospective analysis of heart recipien

170 Velocities were determined by tracking microbeads in a solution containing electroactive potass

171 e microplastics, the bill banned all plastic microbeads in selected cosmetic products.

172 nts revealed fractionation of nanobeads from microbeads in the optimized device with high sorting eff

173 y to image cultured cells and membrane-bound microbeads in twelve independently-focusing channels sim

174 or cells together with primer functionalized microbeads in uniform PCR mix droplets.

175 nzymatic mineralization occur on polystyrene microbeads in water-in-oil emulsions, yielding synthetic

176 ered and microencapsulated human stem cells (MicroBeads) in the mouse eye, and to study the impact of

177 Estimates using fluorescent microbeads indicated approximately 7,000 C1C2-binding si

178 The authors used tonometry to measure microbead-induced IOP elevations.

179 he same mice appears to be normal based on a microbeads-induced glaucoma model.

180 Microbead-injected eyes showed reduced optokinetic track

181 Using a microbead injection technique to chronically raise IOP f

182 The AC loss began 4 weeks after initial microbead injection, corresponding to the time course of

183 d retrograde tracer (Fluorogold, Fluororuby, microbeads) injections in the IC to study the morphology

184 lizing the enzyme on microbeads, packing the microbeads into a chip-based microreactor (volume approx

185 ted unilaterally by injection of polystyrene microbeads into the anterior chamber to occlude aqueous

186 the final protein concentration of the solid microbead is controlled, and ranges from 700 to 1150 mg/

187 The use of flow cytometry and HLA-coated microbeads is recommended for detection of HLA antibodie

188 Light focusing through a microbead leads to the formation of a photonic nanojet f

189 r transplantation, in 8 of 10 cases when the microbead level of DSA had median fluorescence intensity

190 dissociated hippocampal neurons we show that microbeads loaded with CASPR2, but not with a deletion m

191 sensitivity, and subsecond response of these microbeads make them suitable for nerve agent vapor dete

192 Whey microbeads manufactured using a cold-set gelation proces

193 gen evolution reaction and superparamagnetic microbeads (MBs) as pre-concentration/purification platf

194 rsible capacity than conventional mesocarbon microbead (MCMB) powder.

195 sing ion selectivity of hydrogel-infiltrated microbead membranes.

196 ntibody (TPA) levels were measured using the microbead method in 44 presensitized patients who had re

197 intensity (MFI) >2000 U, in 6 of 10 when the microbead MFI >4000 U.

198 In 8 of 10 cases, the microbead MFI at the time of resolution was greater than

199 Here we demonstrate for the first time that microbeads (microBs) can be used as contrast agents to t

200 he detection of single molecules in magnetic microbead microwell array formats revolutionized the dev

201 s (MNBs); (2) optical imaging using magnetic microbeads (MMBs).

202 s has mainly been characterized by following microbead motion by optical microscopy either by particl

203 splacement field obtained is associated with microbead movements; (2) it considers the finite thickne

204 was measured continuously by positioning the microbeads near the electrode surface with a magnet.

205 Here we applied the microbead occlusion model of glaucoma to different trans

206 elevating the intraocular pressure (IOP) via microbead occlusion of ocular fluid outflow in mice.

207 week period of elevated pressure induced by microbead occlusion of ocular fluid, Trpv1(-/-) accelera

208 phic imaging performance is quantified using microbeads of different dimensions, as well as by imagin

209 ed 3D fabrication techniques we integrated a microbead on an AFM cantilever thus realizing a system t

210 The dissociation rates for PSGL-1 microbeads on P-selectin were briefer than those of neut

211 diffraction intensity and the density of the microbeads on the surface varied as a function of PDGF-B

212 cytometric XM, and 23 had DSA detectable by microbead only.

213 positive cases, and in two of seven (29%) of microbead-only cases at a median of 6.5 days after trans

214 These include multiplexed microbead or kinase activity assays, flow cytometry base

215 d to covalently immobilize Wnt3a proteins on microbeads or a glass surface.

216 ge on ground beef, without using antibodies, microbeads or any other reagents, towards a preliminary

217 ls and mouse tumor cells were isolated using microbeads or flow cytometry and analyzed for sphere-for

218 is carried out by immobilizing the enzyme on microbeads, packing the microbeads into a chip-based mic

219 on of collisions between individual magnetic microbeads, present at subattomolar concentrations, and

220 using a magnetic field to preconcentrate the microbeads prior to detection in a microfluidic electroc

221 Microencapsulated human stem cells (MicroBeads) promise to overcome limitations inherent wit

222 Therefore, the Microbead Quantum-dots Detection System (MQDS) was devel

223 For rats, a single injection of microbeads raised IOP by 21% to 34%, depending on volume

224 GFP-marked cells encapsulated in subretinal MicroBeads remained viable over a period of up to 4 mont

225 ECL signal, generated by thousands of carbon microbeads remotely addressed via bipolar electrochemist

226 ported in vivo VEGF release profile from the microbeads resulted in highly vascularized s.c. tissue c

227 The 3% pectin microbeads resulted the best compromise between spherici

228 tinal injections of 1 micro L of fluorescent microbeads, saline, or INS37217 (1-200 micro M) were mad

229 Fluorescent microbead sensor arrays were prepared to determine senso

230 rve agent vapor detection and inclusion into microbead sensor arrays.

231 o form a narrow channel with the polystyrene microbeads serving as spacers.

232 permeability measurements using fluorescent microbeads show that high-risk mucus was more permeable

233 After 52weeks, the microbeads showed a total-astaxanthin retention of 94.1+

234 0 microg/ml) +/- CHC and unmodified alginate microbeads showed low responses.

235 Moreover, by using spatial encoded microbeads, simultaneous detection of both hCG and PSA o

236 rogeneous phase by immobilization on polymer microbead solid supports.

237 ssay evaluating C3d deposition on HLA-coated microbeads spiked with alloantibodies.

238 plete evaporation, we infiltrated the porous microbead structure with a positively or negatively char

239 ly of different tag combinations onto SiO(2) microbead supports via biotin-avidin binding.

240 magnetic field acting on a superparamagnetic microbead suspended in an active medium.

241 sentation of engineered cell-secreted ECM on microbeads suspended in alginate hydrogels would promote

242 25 cytokines were measured by multiplex microbead system (Invitrogen, UK) on a Luminex platform.

243 A cell-scaled microbead system was used to analyze the force-dependent

244 To test this hypothesis, a microbead system was utilized to measure relative L-sele

245 Such microbeads that can be sequentially deprotected and conv

246 describe the preparation and application of microbeads that exhibit a "turn on" fluorescence respons

247 The composite microbeads that we describe are likely to find uses in o

248 When either fragment was coupled to a microbead, the force it could transduce from a shortenin

249 uidic channels with silica nanoparticles and microbeads, thereby indirectly producing functional nano

250 the density and compressibility of cells and microbeads; these being the two central material propert

251 eport both forced and spontaneous motions of microbeads tightly bound to the CSK of human muscle cell

252 mplemented with ssDNA aptamer functionalized microbeads to address the specific capturing of thrombin

253 covalently immobilised on superparamagnetic microbeads to allow the isolation of BBI from soy whey m

254 ident retinal detachment and distributed the microbeads to almost all the subretinal space.

255 valuate the strategy of using self-assembled microbeads to build a robust and tunable membrane for fr

256 ned by replacing the bacteria by polystyrene microbeads to demonstrate the internalization of the lig

257 video microscopy, we tracked selectin-coated microbeads to detect the formation frequency of adhesive

258 ion of DNA-based fluorescent chemosensors on microbeads to differentiate eight toxic metal ions in wa

259 (digital diffraction diagnosis) system uses microbeads to generate unique diffraction patterns which

260 Finally, utilizing magnetic microbeads to mechanically stimulate mechanically-inhibi

261 latter recombinant protein could also couple microbeads to the ends of shortening microtubules and us

262 Here we show, by conjugating glass microbeads to tubulin polymers through strong inert link

263 s of microscale particles, such as cells and microbeads, to biofunctional surfaces is difficult becau

264 Microbead trajectories show a systematic deviation towar

265 The dynamics of magnetic microbead transport by domain walls has been well studie

266 of a depolymerizing MT and can couple it to microbead transport in vitro.

267 It consists of monomeric avidin-coated microbeads trapped in a pipette tip and has been used fo

268 The fluidic system used a novel microbead-trapping flow cell to capture antibody-coupled

269 igh-density sensor arrays were prepared with microbead vapor sensors to explore and compare the infor

270 Detection of a single microbead was successfully demonstrated using a capacita

271 -the-spot packing of antibody-functionalized microbeads was completed in <20 s followed by autonomous

272 peptides of varying hydrophobicities by the microbeads was examined.

273 ch the binding to rhSHBG-coated paramagnetic microbeads was inhibited by any other binding (designer)

274 Intraocular injection of microbeads was made in mouse eyes to elevate intraocular

275 Riboflavin uptake by the microbeads was shown to be via a partition process.

276 Long-term stability of the microbeads was studied for 6 months taking into account

277 em, a positive selection with antifibroblast microbeads was used, combined with fluorescence-activate

278 grade tracer, red (RFB) or green (GFB) latex microbeads, was injected into the gustatory PBN under el

279 tributions of noninteracting and interacting microbeads, we observed that tether bond formation rates

280 ed for Thy-1 expression using immunomagnetic microbeads were enriched from 5.2%-87.2% Thy-1(+).

281 only in the grease that the much publicised microbeads were found.

282 MicroBeads were implanted into the subretinal space of S

283 r scale by passive microrheology techniques: microbeads were injected in jellyfish ECM and their Brow

284 esia, up to 2 muL of fluorescent or magnetic microbeads were injected intracamerally into the mouse e

285 green (GFB) and red (RFB) fluorescent latex microbeads were injected iontophoretically or by pressur

286 The DNA-functionalized microbeads were packed into each of three microchambers

287 Blank whey microbeads were placed in solutions of the compounds.

288 While microbeads were present in the host sediment matrix, the

289 In this study whey microbeads were used to encapsulate riboflavin using 2 m

290 multi-use immunosensor, disposable magnetic microbeads were used to immobilize biomarker-recognition

291 of the resolution enhancement induced by the microbead, which sheds light into the many contradictory

292 amplification factor of 250000 and magnetic microbeads, which are mobile solid-phase supports for th

293 ARC-null mice were injected with fluorescent microbeads, which were also passively exposed to freshly

294 ens were coated onto eight different colored microbeads, which were mixed together in one tube for si

295 d particles were performed using polystyrene microbeads with different sizes to demonstrate rapid (<1

296 thelial progenitor cells (EPCs) by combining microbeads with fluorescence quantum dots (Q-dots) coupl

297 approach was used to obtain calcium-alginate microbeads with high polyphenol content and good morphol

298 labeled sandwich immunoassay on paramagnetic microbeads with mouse IgG as the analyte and beta-galact

299 Porous agarose microbeads, with high surface to volume ratios and high

300 he microfluidic chip contained packed silica microbeads zones to filter and enrich the norovirus infe