ライフサイエンスコーパス: droplet

1 ation of two anionic fluorophores within the droplet.

2 oplet and also support the chemotaxis of the droplet.

3 ons confirm that this does not slow down the droplet.

4 n of atmospheric particles that become cloud droplets.

5 egg extracts into cell-sized 'water-in-oil' droplets.

6 organic or inorganic species adsorbed on the droplets.

7 ifferential content of resin-in-sap emulsion droplets.

8 yl esters that coalesce into cytosolic lipid droplets.

9 lid, simply because there are no ions in oil droplets.

10 ration (LLPS), forming highly dynamic liquid droplets.

11 d rapid lipid synthesis, hiding within lipid droplets.

12 are characteristics of dynamics in polariton droplets.

13 the Hele-Shaw channel from unfused daughter droplets.

14 ell as prevent formation of homotypic liquid droplets.

15 complexes underwent facilitated import into droplets.

16 on of gas phase O(3) and aqueous maleic acid droplets.

17 bundles of cyclic peptide nanotubes in water droplets.

18 ng, mesoporous capsule shell surrounding the droplets.

19 s could transfer between individual emulsion droplets.

20 , disappearance, or appearance of coacervate droplets.

21 droplets, leading to the color change of the droplets.

22 xide particles (1% TiO(2)) and essential oil droplets (2% rosemary oil) as functional components.

23 MD simulations on small ESI droplets (3 nm radius) showed CRM behavior regardless of

24 Surprisingly, many MD runs on larger droplets (5.5 nm radius) culminated in IEM ejection of u

25 lm squeezed by gravity between a millimetric droplet and a smooth solid or a liquid thin film.

26 rface between the encapsulated cells and the droplet and also support the chemotaxis of the droplet.

27 olution of the intervening air layer between droplet and substrate during impact, a balance of air co

28 SARS-CoV2 is transmitted through inhaled droplets and aerosol particles, thus posing an inhalatio

29 triguing evidence of the importance of lipid droplets and hormone-sensitive lipase (HSL) in regulatin

30 uds containing both supercooled liquid water droplets and ice particles (mixed-phase clouds).

31 es by analogy with the coalescence of liquid droplets and ignore the complex structural properties of

32 e-of-the-art deposition-based (extrusion and droplet) and vat polymerization-based (one- and two-phot

33 erse droplet population (tens to hundreds of droplets) and allows for the simultaneous sizing of a si

34 amic interface between peroxisomes and lipid droplets, and also between these organelles and the ER a

35 The virus is transmitted through aerosol droplets, and causes severe acute respiratory syndrome.

36 se was not observed in sodium (SS- or SN-PB) droplets, and no pH differences were observed between su

37 Integrated droplet- and plate-based single-cell RNA sequencing were

38 free rPrP(90-231) phase separated into large droplets, aptamer binding increased the number of drople

39 ld compared to direct ESI-MS of single-phase droplets (aqueous plugs segmented by carrier fluid), wit

40 Lipid droplets are cellular organelles critical for the replic

41 Furthermore these droplets are readily incorporated into encapsulated drop

42 Single droplets are subsequently ejected into the ionization re

43 hobic surfaces for repelling impacting water droplets are typically created by designing structures w

44 dentical for both milk types, while the mean droplet area was 17% smaller with PHM.

45 of 35.3 degrees , the resulting networks of droplets arrange in regular hexagonal close-packed (hcp)

46 tion and species formed by clustering inside droplets as solvent evaporation occurs.

47 rmation on solid surfaces using programmable droplets as vessels.

48 ss of OGT decreases O-GlcNAcylation of lipid droplet-associated perilipin 1 (PLIN1), which leads to e

49 values were measured for pure PB, AS, and AN droplets at different concentrations.

50 tem for high-throughput sorting of nanoliter droplets based on direct detection using electrospray io

51 simulated datasets and on real datasets from droplet-based and full-length protocols, and show that i

52 Previously it was shown that droplet-based chemotactic systems when interfaced with b

53 SARS-CoV-2 RNAaemia measured by droplet-based digital PCR constitutes a promising progno

54 oliter droplet, enhancing the sensitivity of droplet-based electrochemistry by 5 orders of magnitude.

55 Droplet-based microfluidic devices have become widely us

56 ectrometry (MS), widely applied water-in-oil droplet-based microfluidics for single cell analysis met

57 bining coupled transcription/translation and droplet-based microfluidics.

58 label-free enrichment of rare cell types by droplet-based profiling.

59 l lines and tissues and from both plate- and droplet-based single-cell platforms.

60 To address this question, we employed a droplet-based single-cell RNA sequencing (scRNA-seq) app

61 ortant challenge in pre-processing data from droplet-based single-cell RNA sequencing protocols is di

62 Droplet-based single-cell RNA-seq (dscRNA-seq) data are

63 Droplet-based techniques have had a profound impact in c

64 ellular map of gene expression, we performed droplet-based, single-nucleus RNA sequencing (snRNA-seq)

65 uid oil droplets, gas bubbles, and two-phase droplet-bubble pairs.

66 ets, aptamer binding increased the number of droplets but noticeably reduced their size.

67 formed by clustering inside the electrospray droplet, but <=5.6% and ~0.6% of serine exists as an oct

68 rge capsids were excluded from liquid FG-Nup droplets, but functional import complexes underwent faci

69 resulted in a significant reduction in small droplets, but radial atomization may still occur and is

70 magnetic beads from aqueous nanoliter-sized droplets by 2 orders of magnitude to the low mug/mL rang

71 can robustly self-partition into individual droplets by capillary pressure-driven flow.

72 jection, deformation and assembly of charged droplets by control of Taylor cone instability and micro

73 s of the pillars on the receding edge of the droplet; calculations confirm that this does not slow do

74 We demonstrate that droplets can harbor functional soluble and transmembrane

75 zing current evidence for droplet-driver and droplet-client proteins.

76 ploited to trigger the controlled release of droplet components.

77 We further show that the droplet concentrator device, or DroMiCo, can quantify un

78 We then explored the evaporation rate of droplets consisting of culture media and the resulting c

79 e the Poisson loading problem by sorting for droplets containing a single red blood cell with 85% pur

80 In the CARMEN platform, nanolitre droplets containing CRISPR-based nucleic acid detection

81 tate of the art methods, DIEM better removed droplets containing high levels of extranuclear RNA and

82 e cells using a droplet microfluidic system: droplets containing single cells are immobilized in a tw

83 and demonstrate its utility by sorting 25 nL droplets containing transaminase expressed in vitro.

84 ient conditions through local changes in the droplet curvature.

85 ructed which allow better reproducibility in droplet deposition and for laser application.

86 MS droplet screening expands the toolbox for droplet detection and recovery, improving the applicabil

87 tatively analysed 1800 images of dried blood droplets, developing sophisticated image processing anal

88 Overall, all nanoemulsions presented droplet diameter lower than 200 nm and zeta-potential ap

89 The droplet diameter, viscosity, antioxidant activity, encap

90 The self-associated structures had z-average droplet diameters of 92 to 337 nm without any energy inp

91 liquid metal jetting system where effective droplet diameters ranging from 0.8 to 1.6 mm are detecte

92 In particular, we investigate the role of droplet diffusion, fluctuations, and heterochromatin-lam

93 )PCR, rolling circle amplification (RCA) and droplet digital (dd)PCR assays were used to quantify res

94 Here, we tested novel linkage-based droplet digital PCR (ddPCR) assays to study 20 inversion

95 Sanger sequencing, mutation-specific PCR, or droplet digital PCR to determine the presence of BRAF(V6

96 ancer-free matched controls using MethyLight droplet digital PCR.

97 We used droplet digital polymerase chain reaction (ddPCR) to dem

98 ing, whereas ultrastructural examination and droplet digital polymerase chain reaction were negative

99 f proteins by analyzing current evidence for droplet-driver and droplet-client proteins.

100 unt of gas is produced in situ to "puff" the droplet during heating, followed by decomposition of the

101 pressures greater than those of the incoming droplet (dynamic, water hammer).

102 quence-level components in order to regulate droplet dynamics and multiphase coexistence.

103 Droplet emission occurs during speech, yet few studies d

104 lecules encapsulated in a myriad of emulsion droplets (emulsion PCR, ePCR) allows the mitigation of t

105 low surface tension induce a small daughter droplet encapsulated by a larger air shell bubble, formi

106 process of supramolecular polymerization and droplet encapsulation is used to control the position of

107 ousands of molecules trapped in a femtoliter droplet, enhancing the sensitivity of droplet-based elec

108 particle deposition can be achieved through droplet evaporation on oil-wetted hydrophilic surfaces.

109 Toluene droplets filled with decamethylferrocene (DmFc) are susp

110 (ethylene glycol) diacrylate (PEGDA) aqueous droplets for local PDMS chemistry alteration resulting i

111 separation of dextran-in-PEG emulsion micro-droplets for the capture, spatial organization and immob

112 Tunicamycin promotes the lipid droplet formation and alters lipid metabolic gene expres

113 Drop size and frequency of droplet formation are obtained as functions of non-dimen

114 GMM-Demux uses a droplet formation model to authenticate putative cell ty

115 riacylglycerol/phospholipid synthesis, lipid droplet formation, nuclear/endoplasmic reticulum membran

116 ty could be a hallmark of dynamic functional droplets formed by sticker-spacer proteins.

117 uid droplet, protecting the cells inside the droplet from the bactericidal DUV.

118 t studies on the formation of quantum liquid droplets from cold atoms.

119 and others: use of tissues to catch expelled droplets from coughs or sneezes, use of face masks as ap

120 ves also contributed to limiting exposure to droplets from SARS-CoV-2 during slit-lamp examination.

121 nts reveal the ability to discriminate empty droplets from those containing cells with good agreement

122 ion; and densities and volumes of liquid oil droplets, gas bubbles, and two-phase droplet-bubble pair

123 Microfluidic droplet generation affords precise, low volume, high thr

124 material system to understand the process of droplet generation inside yield-stress fluids and develo

125 l results and indicate the importance of the droplet geometry to amplification.

126 The droplet guiding and sorting experiments are complemented

127 ulations and a previously developed model of droplet guiding.

128 the readily reversible condensation of water droplets help understand the principle of phase separati

129 idly migrate and invade through the Matrigel droplet in which they are cultured.

130 luidic device as the printhead, we dispersed droplets in a polydimethylsiloxane (PDMS) continuous pha

131 olded and highly charged in solution and for droplets in a suitable size regime.

132 d light on the applications of liquid sulfur droplets in devices such as microlenses, and potentially

133 Here we report a striking buildup of lipid droplets in microglia with aging in mouse and human brai

134 1) Generally, EGaIn droplets in silicone at loadings approaching 90 wt% rema

135 t size and velocity on the trajectory of the droplets in the channel and analyze the sensitivity of s

136 The condensed droplets in the valley are then evaporated due to the lo

137 e extruded inks at the point of print, using droplet inclusions.

138 e mechanism of NSP2-mediated viroplasm/lipid droplet initiation and interaction will lead to new insi

139 s are readily incorporated into encapsulated droplet interface bilayers (eDIBs), or artificial cells,

140 Field-induced droplet ionization mass spectrometry results have demons

141 When a toluene droplet irreversibly collides with an ultramicroelectrod

142 contact angle (theta(DIB)) between a pair of droplets is a key parameter that dictates the tessellati

143 nternal organization of these multicomponent droplets is still incomplete, and rules for the coexiste

144 ive NO(2) dimer on the surface of pure water droplets is too small to host the whole process.

145 ytosed materials are impaired, causing lipid droplet (LD) accumulation in autolysosomes.

146 investigate the function of DRP1 on ER-lipid droplet (LD) dynamics and the metabolic subsequences, we

147 Lipid droplet (LD) formation from the endoplasmic reticulum (E

148 n Snx14, an endoplasmic reticulum (ER)-lipid droplet (LD) tethering protein, as a factor required to

149 ovine luteal tissue contained abundant lipid droplets, LD-associated perilipins 2/3/5, hormone-sensit

150 Lipid droplets (LDs) are energy storage organelles composed of

151 Lipid droplets (LDs) are neutral lipid storage organelles asse

152 Selective breakdown of lipid droplets (LDs) by autophagy (also called lipophagy) is a

153 We show that the dynamics of lipid droplets (LDs) carry information to measure the lipid me

154 ular triglyceride (IMTG) stored within lipid droplets (LDs) does not directly contribute to skeletal

155 at Saccharomyces cerevisiae accumulate lipid droplets (LDs) during aging.

156 was to identify the characteristics of lipid droplets (LDs) in ovarian steroidogenic cells.

157 seedling growth, for which cytoplasmic lipid droplets (LDs) play a critical role as depots for energy

158 hich are associated with components of lipid droplets (LDs).

159 he halochromic chemical compounds inside the droplets, leading to the color change of the droplets.

160 Most applications of droplet levitation to chemical and biological systems us

161 We analyze the breakup of a pendant water droplet loaded with SDS.

162 Longer cold ischemia time and large droplet macrovesicular steatosis (>=20%) were identified

163 Specifically, we leverage droplet magnetofluidics (DM) to automate the movement of

164 rupole electrodynamic trap (QET) with single droplet mass spectrometry.

165 The droplets may fuse together to form intralamellar water c

166 Because of this, the droplet-mediated transport system is selective for livin

167 troduce a unique system to achieve on-demand droplet merging and splitting using a perpendicular AC e

168 Fluor 555, dissolved in micron-sized aqueous droplets (microdroplets) in oil were excited, and the fl

169 We develop a droplet microfluidic platform to increase the concentrat

170 Herein we report the development of a droplet microfluidic platform, which enables high-throug

171 idual Saccharomyces cerevisiae cells using a droplet microfluidic system: droplets containing single

172 We use a droplet microfluidic technique developed in our lab, Sor

173 This droplet microfluidics-based method enables high-throughp

174 ize of the composites was controlled through droplet microfluidics.

175 rane interactions, leading to self-organized droplet motility relative to the underlying solvent.

176 eriments are complemented by modeling of the droplet motion in the channel flow using computational f

177 ing system produces the surfactants that the droplet needs for cargo transport and the artificial sys

178 e assembly of highly ordered two-dimensional droplet networks.

179 eric difference in satellite estimated cloud droplet number concentration implies preindustrial aeros

180 riglyceride accumulation and increased lipid droplet numbers in vitro, and decreased ketogenesis and

181 t the air-water interface modeled by a water droplet of 191 water molecules.

182 The size of the oil droplets of all double emulsions increased in oral phase

183 rganize in a microwell array(8) to pair with droplets of amplified samples, testing each sample again

184 d by partitioning excess water into isolated droplets of controlled size and spatial distribution.

185 e-mediated transport of oil between emulsion droplets of differing composition and are powered by the

186 Technologies allowing control of droplets of liquid on flat surfaces generally involve th

187 Macropinocytic cups enable cells to take up droplets of medium into internal vesicles.

188 ispensing, two independent streams of ~50-pl droplets of sample are deposited within 10 ms of each ot

189 ded macrophages-including in cytosolic lipid droplets of SMCs.

190 ent patterns after the evaporation of liquid droplets on a solid surface.

191 In technology, droplets on solid surfaces are of widespread use for han

192 on phase transitions, into three-dimensional droplets or in two-dimensional lattices on membrane surf

193 o (e.g., proteins, protein aggregates, lipid droplets or organelles) to the vacuole (lysosome in mamm

194 Our new insights into 3D droplet packing permit the fabrication of complex synthe

195 With this improved control over droplet packing, we can 3D-print functional synthetic ti

196 Individual digital droplet PCR assays were developed for 121 variants (aver

197 ltra-deep sequencing of 25 genes and Digital Droplet PCR of TERT promoter, including sequential sampl

198 arged species at velocities over 10 mm/s (13 droplets per second).

199 loud speech can emit thousands of oral fluid droplets per second.

200 Our results show that lipid sponge droplets permit the facile integration of membrane-rich

201 onium ion concentration on 10-50 mum aerosol droplet pH was quantified using pH nanoprobes and surfac

202 son with the corresponding bulk solution and droplet-phase reactions.

203 Our QET continuously traps a monodisperse droplet population (tens to hundreds of droplets) and al

204 nes between classically-defined airborne and droplet precautions.

205 Here we introduce embedded droplet printing-a system and methods for the generation

206 erations that can be performed with embedded droplet printing.

207 SP2 colocalizes with rotavirus-induced lipid droplets prior to the accumulation of other rotavirus pr

208 lly, we demonstrate a complete separation of droplets produced by fusion of two independent droplet s

209 ee method of detecting bacteria in nanoliter droplets prohibits analysis of the most interesting stra

210 e nondestructive optical techniques to probe droplet properties.

211 Droplets protect bound proteins from proteases, and thes

212 er at the liquid-air interface of the liquid droplet, protecting the cells inside the droplet from th

213 diating CTL evasion, and show that the lipid-droplet-related gene Fitm2 is required for maintaining c

214 d periods and the dispersal of high-velocity droplets resulting in formites at distant surfaces.

215 ontributing to the biophysical properties of droplets, RNA is a functionally critical constituent tha

216 antified via microscopy, establishing robust droplet screening at single-cell resolution.

217 Label-free ESI-MS droplet screening expands the toolbox for droplet detect

218 ogenase biocatalyst via ultrahigh throughput droplet screening.

219 mploys water-in-oil-in-water double emulsion droplets serving as single-cell enzymatic micro-reactors

220 while smaller, potentially virus-containing droplets shrink in size from water evaporation and remai

221 3) Liquid EGaIn droplets sinter during DEP to form a stretchable metalli

222 Pickering emulsions presented bigger droplet size (6.49-9.98 mum) when compared to WPI (1.88-

223 densities produced emulsions with a smaller droplet size and narrow size distribution at all milk pr

224 We systematically study the influence of the droplet size and velocity on the trajectory of the dropl

225 surfactant and HPMC maintained the KTP-rich droplet size at around 200 nm, which was smaller than in

226 at, the variations in the water fraction and droplet size did not show major influence on crystalliza

227 ion of EHD2 in mice leads to increased lipid droplet size in fat tissue.

228 by optimizing the vaporization temperature, droplet size range, and analyte volatility.

229 were analyzed based on parameters including droplet size, viscosity, peroxide value, volatile compou

230 ificantly, this surface tension reduction is droplet size-dependent and does not correspond exactly t

231 nd dynamic range can be tuned by controlling droplet size.

232 se (ATGL), as well as markedly reduced lipid droplet size.

233 water content; 15, 30, and 40% (w/w), water droplet size; d(43) 15.0-19.6 um (larger) and d(43) 1.2-

234 Droplet sizes of emulsions and viscosity were observed t

235 An alternative, the water-droplet/solid-based triboelectric nanogenerator, has so

236 ions over time; as water evaporates from the droplets, solutes such as sodium chloride in the media b

237 screening platform based on flow cytometric droplet sorting (FCDS).

238 el and analyze the sensitivity of size-based droplet sorting for varying flow conditions.

239 and recovery, improving the applicability of droplet sorting to protein engineering, drug discovery,

240 where alternate, single, double, and triple droplets sorting were achieved.

241 e contact method significantly increases the droplet stability, allowing for prolonged mapping and th

242 ow that, within the whole system (beyond the droplet stage), macroscopic interconnected aggregate clu

243 Failure in the control of the droplet state can lead to the formation of the more stab

244 Our results lead to the conclusion that the droplet state could be, at least transiently, accessible

245 at the kinetically arrested metastable multi-droplet state is a dynamic outcome of the interplay betw

246 ss the biophysical principles underlying the droplet state of proteins by analyzing current evidence

247 o a dense liquid phase, forming a reversible droplet state.

248 expression and redistributed PLIN2 to lipid droplet stores in type I fibres.

249 in the perilipin (PLIN) content of the lipid droplets storing intramuscular triglyceride (IMTG).

250 oplets produced by fusion of two independent droplet streams at the inlet of the Hele-Shaw channel fr

251 cleoplasm and cytoplasm into distinct liquid-droplet structures.

252 t TGs and SEs are the typical cargo of lipid droplets suggests that these organelles could be connect

253 A water droplet surface tension (WDST) based innovative method w

254 ases metastable He[Formula: see text] at the droplet surface.

255 results lay the foundation for new advanced droplet techniques with transformative applications.

256 ndustrial interest, opening the microfluidic droplet technologies for adaptation in these fields.

257 st interesting strains and widespread use of droplet technologies in analytical microbiology.

258 iquid phase separation (LLPS), forming dense droplets that are increasingly understood to be importan

259 k components-namely, the production of small droplets that may remain suspended in the room environme

260 easurement of scattered light from nanoliter droplets to demonstrate reliable detection of the prolif

261 we found the fusion speeds of four types of droplets to differ by two orders of magnitude.

262 kinase A regulatory subunits assemble liquid droplets to further localize cAMP signaling.

263 acuole junctions (NVJs) cooperate with lipid droplets to maintain viability and enhance NPC formation

264 ic device for the slip-induced generation of droplets to perform digital loop-mediated isothermal amp

265 OH/2017 was capable of efficient respiratory droplet transmission from infected pigs to contact ferre

266 t MFAP1, among the top 20 in our list, forms droplets under certain circumstances and that MFAP1 expr

267 observe electrowetting and merging of sulfur droplets under different potentiostatic conditions, and

268 oratory experiments on methane-saturated oil droplets under emulated deep-water conditions, providing

269 lows for the simultaneous sizing of a single droplet using its Mie scattering pattern.

270 studied Pf4 assembly into liquid crystalline droplets using optical microscopy and electron cryotomog

271 nt and the demixing transition in multiphase droplets using the interfacial tensions and critical sal

272 es in both suspended aerosols and stationary droplets using traditional culture-based approaches.

273 Surprisingly, droplet velocities down inclined soft or hard textured s

274 ot neatly be separated into the dichotomy of droplet versus airborne transmission routes.

275 d by only a few living cells in microfluidic droplets via mass spectrometry.

276 ) array, with osmotically induced changes in droplet volume being used to measure cell metabolism, wh

277 In Caco-2/TC7 cells, the number of lipid droplets was identical for both milk types, while the me

278 ic and palmitic acid, and formation of lipid droplets was visualized by staining.

279 er, significant distributions of respiratory droplets were found on the slit-lamp joystick and table.

280 n the permeability barrier properties of the droplets were optically interrogated.

281 On the microfluidic chip, droplets were perfused with different transport-competen

282 The toluene droplet wetting the ultramicroelectrode effectively crea

283 r is no longer able to form a quantum liquid droplet when about two-thirds of pairs of attractive int

284 Aerosol particles become cloud droplets when the ambient relative humidity (saturation

285 est effect in limiting spread of respiratory droplets, whereas slit-lamp shields and gloves also cont

286 ics of mucus induce flocculation of emulsion droplets, which could significantly influence their sens

287 zing kinetics during the solidification of a droplet while it impacts on an undercooled surface.

288 ration of uniform electric fields inside the droplets, while simultaneously preventing the formation

289 int functional synthetic tissues with single-droplet-wide conductive pathways.

290 A gravity-driven droplet will rapidly flow down an inclined substrate, re

291 unctional screening in water-in-oil emulsion droplets with cell-free expression.

292 throughput mechanism for sorting of emulsion droplets with different sizes concurrently flowing in a

293 At a relative humidity of 50%, for example, droplets with initial radii larger than about 50 mum rap

294 Considering cells are already "droplets" with hydrophilic surface and elastic hydrophob

295 es detect oxygenated organic acids in single droplets, with signal-to-noise ratios >100 and detection

296 concentrations in a single microliter sample droplet within less than 25min.

297 ed >95% of the methane from ~3.5 mm live oil droplets within 14.5 min, prior to gas bubble formation,

298 e positioning of hundreds of picolitre-sized droplets within 3D-printed, multi-layer networks.

299 bolism, peroxisomes share a niche with lipid droplets within the endomembrane-secretory system.

300 eneration, trapping, and processing of fluid droplets within yield-stress fluids, materials that exhi