ライフサイエンスコーパス: chip

1 riptome was profiled using Illumina WG-6v2.0 chip in control and AngII infused (490 ng/kg/min) hypert

2 A chip-based mixer is incorporated to transform the sample

3 A chip-based ultrasensitive surface plasmon resonance (SPR

4 or from objects 10 s-100 s of microns from a chip surface, but benefitting from the parallelism and d

5 rganized in a two-dimensional array inside a chip the size of a thumb, the lateral dimension of each

6 goals of POC testing is the development of a chip-based, miniaturized, portable, and self-containing

7 ndividually addressed by their location on a chip.

8 d and passive methods of fluid handling on a chip.

9 nanoparticles (LPHNs) that are tethered on a chip.

10 Here we report a chip-based regulated environment for microorgans that en

11 st, point-of-care (POC) devices and lab-on-a-chip (LOC) applications.

12 a-low-cost, rapid, and miniaturized lab-on-a-chip (LOC) platform.

13 capability of being integrated into lab-on-a-chip (LOC), microfluidics, and micro total analysis syst

14 Overall, by exploiting an on-a-chip 22q11.2 DS model, our results suggest a delayed GAB

15 dic systems with logic circuits for lab-on-a-chip applications.

16 hnological gap, we have developed a lab-on-a-chip capable of mechanically inducing circular cell-free

17 mple preparation procedure within a lab-on-a-chip device or cartridge, but these systems require a hi

18 tweezers for further development in lab-on-a-chip devices.

19 Organoid technology and organ-on-a-chip engineering have emerged as two distinct approaches

20 Finally, organ-on-a-chip models demonstrate how drug metabolism in the liver

21 s of dissolved oxygen (DO) within a lab-on-a-chip platform.

22 We describe a three-tissue organ-on-a-chip system, comprised of liver, heart, and lung, and hi

23 a means of fluidic manipulation in lab-on-a-chip systems can potentially reduce the complexity of th

24 erformances of various microfluidic Lab-on-a-chip systems for PDT efficacy analysis on 3D culture and

25 development of simple and portable lab-on-a-chip systems.

26 Here, we developed a vessel-on-a-chip with perfused endothelialized channels lined with h

27 and future prospects, such as pancreas-on-a-chip, are also presented.

28 strointestinal digestion of French fries and chips; and the effectiveness of blanching and air-frying

29 es" pattern increased, whereas the "meat and chips" and "chocolate and sweets" pattern scores decreas

30 and vegetables") and 2 unhealthy ("meat and chips" and "chocolate and sweets") patterns were identif

31 es" pattern increased, whereas the "meat and chips" and the "chocolate and sweets" pattern scores dec

32 , the applicability of the ordered GNR array chip was extended to molecular fluorescence enhancement

33 uffer from many influencing factors, such as chip conditions.

34 odium glutamate (MSG) in foodstuffs, such as chips, taste cubes, sauces and soups.

35 sed the Methylated CpG Island Recovery Assay chip to survey DNA methylation in cord blood mononuclear

36 The GO-peptide-based chip (1mM) had a high affinity (KA) of 6.37x10(12)M(-1),

37 We used microfabricated 3-D biomimetic chips to validate predictions that shape-sensing occurs

38 A biosensor chip was then integrated with a lab-built low-cost minia

39 flecting optical waveguide (ARROW) biosensor chip, a detection limit of 0.021pfu/mL for clinical samp

40 ch permits the use of a disposable biosensor chip that can be mass-produced at low cost and can be us

41 label-free paper-based electrical biosensor chip to quantify salivary cortisol at a point-of-care (P

42 analyzed by direct spray MS of the biosensor chip to confirm the identity of DON.

43 sor, SUPS can be integrated with a bluetooth chip to provide accurate, wireless, and real-time monito

44 Crop breeding chips and genotyping platforms will provide unprecedente

45 el-based, colorimetric, autonomous capillary chip provides a multiplexed and semi-quantitative immuno

46 y, both spectra are acquired on a single CCD chip simultaneously.

47 erlap with experimentally derived (e.g. ChIP-chip and transcription factor (TF) knockouts) networks.

48 across languages, communication of chromatic chips is always better for warm colors (yellows/reds) th

49 tegrated circuits, where particular circuits/chips are designed to optimally perform particular funct

50 lic groups, BSA was immobilized onto the CMD chip through covalent amide binding formation.

51 tigen-antibody interaction of the Au/GO-COOH chip cause this chip to become four times as sensitive t

52 izing a microfluidic dielectrophoresis (DEP) chip was conducted to rapidly detect a dengue virus (DEN

53 ume solutions using a nanostructured diamond chip with dense, high-aspect-ratio nanogratings, enhanci

54 With the use of the rheo-DIB chip, the effective bilayer permeability can be modulate

55 red on immunosensors fabricated on different chips (reproducibility error) was below 7%.

56 using 3D electrodes on a low-cost disposable chip; one cell type is allowed to pass through the chip

57 DNA chip analysis showed that amphoterin-induced gene and op

58 of millions of nanoscale vent holes on each chip by gas-phase Xenon difluoride etching.

59 ed optically transparent thin-film electrode chip for fluorescence and absorption spectroelectrochemi

60 K3[Fe(CN)6] in 0.1 M KCl using the electrode chip gave a diffusion coefficient of 1.59 x 10(-6) cm(2)

61 metry measurements showed that the electrode chip was comparable to a standard electrochemical cell.

62 sociated with BP from meta-analyses of exome chip genotype data.

63 We performed an exome-chip based genome-wide association studies (GWAS) in 215

64 on captured using exome-sequencing and exome-chip genotyping in a genetically isolated population fro

65 frequency-swept ferromagnetic resonant flip-chip technique, respectively.

66 ells, and were formed at 20 Hz, on a fluidic chip.

67 When implemented on a single FPGA chip, GateKeeper maintains high accuracy (on average >96

68 stion on acrylamide content of French Fries, chips, chicken nuggets, onions rings, breakfast cereals,

69 ar cells were quantified via microarray gene chips.

70 ss micro thermostat and a microfluidic glass chip as central elements were designed and evaluated for

71 e high-pressure resistant microfluidic glass chip.

72 eloped a nanotechnology-based plasmonic gold chip for autoantibody profiling.

73 nt mycotoxin, was captured using an SPR gold chip containing an antifouling layer and monoclonal anti

74 The miniaturized HEMT chip is packaged in a polymer substrate and easily integ

75 s and selective transport functionalities in chip-based devices using magnetic domain wall conduits.

76 e as an active parameter for optimization in chip-based liquid chromatography is an important step to

77 xemplify a plethora of subsurface, i.e., "in-chip" microstructures for microfluidic cooling of chips,

78 g performance of the optomechanical inspired chip-scale sensors.

79 The integrated chip is only 1cm(2) (including a PDMS flow cell with a 5

80 all this cultivation platform the 'isolation chip', or 'ichip'.

81 unt chip components, such as the wafer level chip scale packages, chip resistors, and light-emitting

82 nts for an organic-semiconductor-based logic chip.

83 anufacturing multifunctional multimodal LSPR chips for multiplexed analysis of different substances r

84 lated DNA immunoprecipitation on chip (MeDIP-chip).

85 ion patterns with an alternative methylation chip.

86 location of the surface of a DNA microarray chip through specific hybridization with complementary o

87 ere we generated a set of genomic microarray chips covering about 8000 bp flanking the predicted tran

88 ts, optoelectronic devices, and microcircuit chips.

89 The 3D microfluidic chip reduces reactant consumption and facilitates soluti

90 be (RAN) system combined with a microfluidic chip to successfully process complete blood samples.

91 substrate and integrated with a microfluidic chip.

92 the phone with a silicon-based microfluidic chip embedded within a credit-card-sized cartridge.

93 Algae are grown in glass based microfluidic chip, which contains integrated optical pH and oxygen se

94 ailored dielectrophoresis-based microfluidic chip.

95 of-concept for a single-chamber microfluidic chip that combines the fluidized bed with the polymer mi

96 cfu/mL) using a custom-designed microfluidic chip and monitor their individual growth rates using mic

97 was performed on the developed microfluidic chip within 30min, and the limit of detection was only 1

98 A disposable microfluidic chip, prefilled with biomarker-specific reagents and mag

99 udy, an integrated, self-driven microfluidic chip was designed to carry out digital LAMP.

100 ost-recovery imaging all on one microfluidic chip.

101 e the microchannel of a passive microfluidic chip designed to enhance capillary flow.

102 rts an all-polydimethylsiloxane microfluidic chip integrated with screen-printed carbon electrode for

103 igestion methods with a polymer microfluidic chip based enzyme reactor.

104 human IgGs using a specialized microfluidic chip.

105 The microfluidic chip and functionalized electrodes were characterized us

106 l antibody-coated beads) in the microfluidic chip and the DENV modified with fluorescence label, as t

107 The microfluidic chip contained packed silica microbeads zones to filter

108 ited into distinct lanes of the microfluidic chip, which when exposed to target nucleic acid sequence

109 (a-Si:H) photosensors below the microfluidic chip.

110 es compared to the conventional microfluidic chips including cost-effectiveness, ease of fabrication,

111 g the electronics separate from microfluidic chips, the former can be reused and device lifetime is e

112 ng of magnetic particles inside microfluidic chips for miniaturized assays is often challenging due t

113 , we present the combination of microfluidic chips and mass spectrometry employing laser-induced liqu

114 y combined with high-throughput microfluidic chips is a powerful method to obtain information about d

115 t environments, high-throughput microfluidic chips require complex preparatory work.

116 ation and characterization with microfluidic chips has critical significance in cancer prognosis offe

117 zing suspension cells within a microfluidics chip.

118 s and the creation of the MACS microfluidics chip.

119 tion and testing of 3D printed microfluidics chips coupled with silicon photomultipliers (SiPMs) for

120 We present an automated monolithic chip with 128 multiplexed deterministic lateral displace

121 iety of commercially available surface mount chip components, such as the wafer level chip scale pack

122 on strategy capable of producing nanofluidic chips with complex designs and down to single-digit nano

123 we demonstrate these sacrificial nanofluidic chips can function to controllably and completely stretc

124 nal phase-change materials with nanophotonic chips.

125 usually irreversible; for that reason, a new chip (which is expensive) is required for every successf

126 Using our new chip, we observed that the cwn-2 and cfz-2 mutations sig

127 parison to other regenerative chips, the new chip surface has much wider applicability and all of its

128 menthol, using three different types of NMR chips aiming for straightforward microfluidic connectivi

129 d to a continuous increase in the use of oak chips and staves in winemaking.

130 ring the effects of wine maceration with oak chips was evaluated.

131 Our estimates of chip heritability (14-27%) support a role for common gen

132 states has great importance in the fields of chip-scale atomic clock and quantum information.

133 microstructures for microfluidic cooling of chips, vias, MEMS, photovoltaic applications and photoni

134 ermination of acrylamide in various types of chips samples and satisfactory results were obtained.

135 hes for light sources include one or few off-chip or wafer-bonded lasers based on III-V materials, bu

136 t require time-consuming and problematic off-chip probe conjugation and washing.

137 a movement between the processor and the off-chip memory.

138 vity of 1.6 copies/microL, comparable to off-chip detection using conventional laser scanner.

139 sful DNA amplification has been verified off-chip by using a standard fluorometer.

140 tion using Intel Xeon Phi processor with off-chip memory (with hypothetical on-chip digital resistive

141 the observation of quantum Zeno blockade on chip, where a lightwave is modulated by another in a dis

142 ich reaction performed in continuous flow on chip.

143 n processing of chromatographic fractions on chip.

144 sing a methylated DNA immunoprecipitation on chip (MeDIP-chip).

145 supercapacitors are attractive for system on chip technologies and surface mount devices due to their

146 on of magneto-optic nonreciprocal systems on chip have made imperative the exploration of magnet free

147 ibodies in an individual can be displayed on chips on which 130,000 peptides chosen from random seque

148 On-chip magnetic cooling is a promising approach to meet th

149 On-chip photonic networks hold great promise for enabling n

150 cting the sample, and pave the way for an on-chip circuit element of practical the zero-field microwa

151 Exploiting an on-chip concentration protocol in the SPM and the single mo

152 This paper presents an on-chip device that can perform gigahertz-rate amplitude mo

153 large field-of-view of >16 mm(2) using an on-chip imaging platform, where the sample is placed at </=

154 proof-of-concept technology comprising an on-chip planar Goubau line, integrated with a microfluidic

155 r application in imaging, bio-sensing and on-chip all-optical signal processing operations.

156 itable for on-chip thermal treatments and on-chip detection of biomolecules.

157 ased assay for automated manipulation and on-chip monitoring and analysis of stimulus-evoked calcium

158 al sensing, super-resolution imaging, and on-chip optical communication.

159 ystem for rapid label-free separation and on-chip phenotypic characterization of circulating tumor ce

160 -chip vortexing of the magnetic beads and on-chip reagent storage and actuation were developed.

161 cavity based line-narrowing in MoS2-based on-chip devices as it is required for instance for frequenc

162 design a nanodevice platform and combine on-chip electrochemical impedance spectroscopy measurement,

163 five different vancomycin concentrations on-chip, and the sample injection, transport, and mixing pr

164 recently successfully used to demonstrate on-chip effects of quantum optics with single atoms in the

165 Here we demonstrate on-chip generation of entangled qudit states, where the pho

166 The demonstrated on-chip integration is up and down-scalable, compatible wit

167 d the key to future high-bandwidth, dense on-chip integrated logic circuits overcoming the diffractio

168 We also demonstrate all-dielectric on-chip polarization rotators based on phased arrays of Mie

169 e target cell population, enabling direct on-chip tumor cell identification and enumeration.

170 s of data every second, store it directly on-chip, perform in situ processing of the captured data, a

171 ization functionality, the system enables on-chip optimization of electroporation parameters for cell

172 ver conventional electrodes of equivalent on-chip footprint areas.

173 , the inner surface provides an excellent on-chip sensing platform that truly opens up the possibilit

174 AC line-filtering on-chip micro-supercapacitors (MSCs) based on coordination

175 energy transfer as the basis for flexible on-chip light sources, amplifiers, nonreciprocal devices an

176 ion of high-performance, small-footprint, on-chip inductors remains a challenge in radio-frequency an

177 x modified with capturing biomolecule for on-chip electrochemical biosensing.

178 2D) membrane based off-surface matrix for on-chip electrochemical immunoassay.

179 n amorphous silicon validates its use for on-chip energy-storage applications.

180 stable and efficient emitter material for on-chip photonics without the need for epitaxy and is at CM

181 ly has an impact on technology (e.g., for on-chip quantum networking).

182 p a multifunctional platform suitable for on-chip thermal treatments and on-chip detection of biomole

183 Novel concepts for on-chip vortexing of the magnetic beads and on-chip reagent

184 zanjeh et al. demonstrate a magnetic-free on-chip microwave circulator that utilizes the interference

185 mbs and solitons have been generated from on-chip microresonators.

186 that the SSDL concept may lead to future on-chip circulators over multi-octaves of frequency.

187 a compact and cost-effective holographic on-chip microscope and a surface-functionalized glass subst

188 this aim, we have designed a holographic on-chip microscope operating at an ultraviolet illumination

189 et al. stride toward this goal by hybrid on-chip integration of Si3N4 waveguides and GaAs nanophoton

190 r with off-chip memory (with hypothetical on-chip digital resistive random access memory).

191 isation-based quantum dot applications in on-chip conditions.

192 ce for frequency-multiplexed operation in on-chip optical communication and sensing.

193 nd waves on a surface has applications in on-chip signal processing and sensing.

194 ire nerve regeneration studies, including on-chip axotomy, post-surgery housing for recovery, and pos

195 solid-state refrigeration and integrable on-chip thermal management.

196 th scales, the development of complex lab-on-chip (LOC) systems is in the focus of many current resea

197 otential drops in a flow channel in a lab-on-chip device that accommodates chemical reactions on elec

198 Fully-integrated lab-on-chip sample preparation overcomes technical barriers to

199 substrate is essential for realizing lab-on-chip technologies.

200 Stokes flow and the accessibility of lab-on-chip technology.

201 terials and sensing platforms such as lab-on-chip, lab-on-CD, lab-on-paper etc.

202 nable clinical enumeration of metastasis, on-chip anti-cancer drug responses and biological molecular

203 ducting qubit processors with multiplexed on-chip signal processing and readout.Nonreciprocal optical

204 ant considerations for the development of on-chip batteries is the need to photopattern the solid ele

205 for realization of the next generation of on-chip modulators and switches at THz frequencies.

206 y all-electrical means is at the heart of on-chip nano-optical processing.

207 Arrays of on-chip spherical glass shells of hundreds of micrometers i

208 mption, open up a path to fast, parallel, on-chip computation based on networks of oscillators.

209 red by the lack of sensitive and portable on-chip optical detection technology.

210 The reported on-chip MSCs showed a low impedance phase angle of -73 degr

211 lopment of quantum network nodes requires on-chip qubit storage functionality with control of the rea

212 provides such capabilities in a scalable on-chip implementation, allowing direct integration of GaAs

213 gle chirality level for nanotube sorting, on-chip passivation, and nanoscale lithography.

214 ure distribution and photosensors for the on-chip detection and a ground plane ensuring that the heat

215 ate an immuno-reaction time, in which the on-chip detection time was 5min, and demonstrating an abili

216 on process, we demonstrate cooling of the on-chip electrons from 9 mK to below 5 mK for over 1000 sec

217 The on-chip iridium oxide (IrOx) pseudo-reference electrode pro

218 The on-chip optical detection was performed in a single acquisi

219 This on-chip detection simplifies GP imaging as sophisticated s-

220 eruginosa (6294), S. aureus(LAC), through on-chip electrical sensing of bacterial lysate.

221 s to date have been usually restricted to on-chip micro-devices.

222 quantum information is stored in trapped on-chip acoustic wavepackets, and manipulated in ways that

223 We have developed a versatile on-chip vortex-assisted electroporation system, engineered

224 With on-chip desalting, the limit of quantitation for histidine

225 In this work, on-chip energy storage is demonstrated using architectures

226 gical systems (MPS), also known as organs-on-chips, that recapitulate the structure and function of n

227 fluidic waveguide channels on an optofluidic chip to create multi-spot excitation patterns that depen

228 ave developed a human microfluidic two-organ-chip model to study pancreatic islet-liver cross-talk ba

229 orners of the flow-through channels as other chip-based GC devices, the efficiencies obtained in a L

230 such as the wafer level chip scale packages, chip resistors, and light-emitting diodes, can be reflow

231 Here we use an integrated photonic chip with a circuit-based approach to simulate the dynam

232 ng two-photon hyperentanglement and photonic-chip technology.

233 rmation of acrylamide in deep fried plantain chips made from Nendran variety (Musa paradisiaca) was i

234 reduced formation of acrylamide in plantain chips to a reasonable extend.

235 Under optimized conditions in plastic chips, INPs made sub-10 s actuations possible at TEC tem

236 Direct comparison of isolates from potato chip samples fried for 170s and 210s indicated longer fr

237 initial values (before digestion) in potato chips (p-value=0.027).

238 f frying time on the taste profile of potato chips was characterized.

239 h compounds to the umami character of potato chips.

240 2% of kilocalories from total fat) or potato chips (control; 54% of kilocalories from carbohydrate, 1

241 In comparison to other regenerative chips, the new chip surface has much wider applicability

242 ol immune biosensor over previously reported chips include an improved limit of detection, no need fo

243 y opens up the possibility for reproducible, chip scale, ultra-high sensitivity microfluidic sensor a

244 d large-scale deployment will likely require chip-based devices for improved performance, miniaturiza

245 unoprecipitation followed by microarray (RIP-chip) analysis showed that DHTS treatment of HeLa cells

246 lement is certified by constructing a second chip, which measures the entanglement between multiple d

247 ere next generation-sequenced (semiconductor chip technology) for the MYH7, MYBPC3, TNNT2, TNNI3, ACT

248 The semiconductor chip measures DNA amplification through a pH change, rat

249 rocombs, a miniature and often semiconductor-chip-based device, can potentially access most of these

250 dizes with capture probe on the gold sensing chip and the unpaired fragment of target DNA works as a

251 A metamaterial sensing chip was designed for increasing of absorption cross sec

252 oscopy system, THz nano-metamaterial sensing chips were prepared for great enhancing of detection sen

253 array of micro fingers of gold based sensor chip using double side tape spacer and StartingBlock pho

254 structured gold electrode array based sensor chip.

255 performance of the proposed cortisol sensor chip was validated using an enzyme-linked immunosorbent

256 The gold sensor chip was used to immobilise alpha-casein-polyclonal anti

257 A Surface Plasmon Resonance (SPR) sensor chip consisting of four sensing arrays enabling the meas

258 ation of sensor helped to prevent the sensor chip surface from fouling during functionalization.

259 A high specificity of the sensor chip to detect cortisol with a detection limit of 3 pg/m

260 cture and coupling them with both the sensor chips, functionalized with Hep-B and Hep-C antibodies ha

261 of metallic spirals that consume significant chip area, resulting in low inductance densities.

262 monstrated in silica waveguides on a silicon chip.

263 red on a 30-microm-thick crystalline silicon chip by chemical etching process, which produced a flexi

264 g process, which produced a flexible silicon chip.

265 We applied the recently introduced silicon chip coated with a functional polymer named copoly(DMA-N

266 Using a micropatterned silicon chip in combination with the high-speed Roadrunner gonio

267 Individual donors in silicon chips are used as quantum bits with extremely low error

268 tional microelements directly inside silicon chips.

269 s egg and cow's milk were spotted on silicon chips coated with copoly(DMA-NAS-MAPS) along with known

270 ase is fabricated with the shank on a single chip.

271 t the potential of this GO-peptide-based SPR chip detection method in clinical application.

272 rough pi-stacking on the graphene coated SPR chip and the FAP analyte in serum.

273 ivity of 16 times that of a conventional SPR chip.

274 y up to 1.2 times that of a conventional SPR chip.

275 nstruct a highly sensitive and selective SPR chip for folate biomarker sensing in serum.

276 acid protein (FAP) using graphene-based SPR chips.

277 The chip IMER is found to rival the conventional column in t

278 streptavidin as a robust bridge between the chip and the biotinylated bait.

279 We estimated the chip heritability of loneliness and examined coheritabil

280 G-LL-332 and COG-LL-317 were isolated in the chip with 80%-97% and 57% -92% of purity, respectively,

281 CCRF-CEM lymphoblasts were isolated in the chip with 82-97% purity, with lower concentrations teste

282 r high-throughput patterning of cells in the chip.

283 cles is unlimited during the lifetime of the chip (2-3 weeks).

284 These results indicate the potential of the chip in detecting specific proteins, and the development

285 Any pathogen is then assayed on the chip to find peptides that bind or kill it.

286 one cell type is allowed to pass through the chip whereas the other is retained and subsequently reco

287 Using the chip-based regulated environment for microorgans, we dem

288 chambers and three reagent chambers via the chip's automatic dispensation and dilution functions wit

289 es against the toxin and, after washing, the chip could be taken out and analyzed by direct spray MS

290 ON in all but 1 participant (P4) in whom the chip was not functioning optimally because of a combinat

291 Ethanolic extracts of the chips were analysed using electrospray mass spectrometry

292 for signal routing and protection, but their chip-scale integration is not yet practical using standa

293 omatin immunoprecipitation assays with these chips, we determined the genome-wide binding of TR in th

294 nteraction of the Au/GO-COOH chip cause this chip to become four times as sensitive to the SPR angle

295 ess could be automatically performed on this chip via capillary forces enabled through microwells com

296 Two chips with laminar flow (0 degrees filament direction) o

297 fect compatible match with the commercial UV chips, 73.2% quantum efficiency and 90.9% thermal stabil

298 The waveguide chip was activated by (3-Mercaptopropyl) trimethoxysilan

299 70 cm long and 75 mum deep and 6.195 mm wide chip for, respectively, quasi-unretained and retained co

300 For zebra chip disease control, aggressive psyllid management enab