ライフサイエンスコーパス: amperometric

1 An amperometric acetylcholine biosensor was constructed by

2 strategy for the construction of disposable amperometric affinity biosensors is described in this wo

3 Amperometric analysis confirmed high glucose sensitivity

4 dopamine aptasensor allowed continuous 20 h amperometric analysis of dopamine in 10% serum within th

5 Amperometric analysis was performed with potassium ferri

6 Miniature enzyme-based amperometric and coulometric glucose sensors were fabric

7 y number of vesicle subpools observed in the amperometric and electron microscopy data.

8 ts relation to the ejection current using an amperometric and liquid chromatographic approach.

9 mbdamax=425 nm) allowed direct comparison of amperometric and luminescence performance.

10 Poisson finite element simulations, and both amperometric and potentiometric experimental verificatio

11 ween working electrodes and minerals in both amperometric and potentiometric measurements.

12 performance of the PPy-PNP-XOD-Fe(CN)(6)(4-) amperometric and PPy-NO(3)/BSA/GLA-PNP-XOD potentiometri

13 e reported device is suitable for performing amperometric and voltammetric recordings with high sensi

14 The SWNT electrodes are deployed as amperometric (anodic) detectors in microfluidic cells, p

15 25 mum in diameter, capable of performing an amperometric approach curve and serving as a potentiomet

16 mbrane composition aided us in performing an amperometric approach curve to position the probe and ob

17 ferricyanide addition; cell counts from the amperometric assay provided a measure of drug-induced ce

18 The test relies upon an electrochemical (amperometric) assay, comprising a high-precision bioinst

19 In contrast to widely used amperometric based biosensor, where a number of enzymes

20 The amperometric-based lactate sensor consists of doped enzy

21 dependent which can lead to inaccuracies in amperometric beta-D-glucose determinations.

22 Using poly(HEMA-co-AEMA) hydrogel and an amperometric bioassay (50s) we obtained maximum inhibiti

23 In this work, a novel amperometric biosensor based on gold nanoparticles ancho

24 the present work, we describe a new thiamine amperometric biosensor based on thiamine pyrophosphate (

25 This amperometric biosensor can be easily incorporated into f

26 A whole-cell amperometric biosensor consisting of genetically enginee

27 On this basis, a rather simple amperometric biosensor construct was formed, which uses

28 The implantable enzyme amperometric biosensor continues as the dominant in vivo

29 The amperometric biosensor exhibited a linear response to al

30 e development and performance of a new rapid amperometric biosensor for fructose monitoring in food a

31 In this work, a sensitive amperometric biosensor for hydrogen peroxide based on sy

32 A mediator-free amperometric biosensor for phenolic compounds detection

33 reports the development of a nano-interfaced amperometric biosensor for rapid and accurate monitoring

34 This paper describes an innovative amperometric biosensor for the in vitro determination of

35 The development of a disposable amperometric biosensor for the measurement of circulatin

36 ive, robust, reproducible and stable glucose amperometric biosensor for the quantification of glucose

37 This work reports on the first amperometric biosensor for the rapid detection of Strept

38 An amperometric biosensor has been developed that uses the

39 ation in cheese by a novel, highly selective amperometric biosensor is reported.

40 gration of MPCs as a functional component of amperometric biosensor schemes has implications for futu

41 was evaluated by amperometry and the so-made amperometric biosensor was able to perform real-time and

42 A laboratory prototype of the proposed amperometric biosensor was applied to the samples of thr

43 f a polypyrrole (Ppy)-based, glucose oxidase amperometric biosensor were studied.

44 of interstitial glucose and an enzyme-based amperometric biosensor.

45 tration range of 0.1-1 mM were achieved with amperometric biosensor.

46 tion, is achieved by connecting enzyme-based amperometric biosensors and organic electronic ion pumps

47 However, amperometric biosensors are typically hampered by Farada

48 Enzyme-based amperometric biosensors are widely used for monitoring k

49 tible matrix in the development of enzymatic amperometric biosensors for whole blood analysis, to enh

50 In this study, glucose and ethanol amperometric biosensors integrated with a wireless telem

51 top of these PtNp-CNF-PDDA/SPCEs resulted in amperometric biosensors with high operational stability.

52 ed electrode in long-lived biofuel cells and amperometric biosensors.

53 roducible since the R.S.D. for 10 successive amperometric calibrations using the same surface was 3.6

54 de (GR-IL/GCE) to develop a highly sensitive amperometric cholesterol biosensor.

55 Due to the amplification effect on the amperometric/coulombimetric signal produced by the CdSNP

56 to different concentrations of H2O2 and the amperometric current response was recorded.

57 During the amperometric current-time (i-t) curve measurement with N

58 ponse was measured by cyclic voltammetry and amperometric current-time (i-t) curve techniques.

59 ytes are 26, 98, and 24 nM, respectively, in amperometric current-time measurements.

60 was validated by simultaneous measurement of amperometric currents from 100 electrodes in response to

61 R2, which was further utilized to develop an amperometric CXCL5 biosensor.

62 e recorded signal compared to direct current amperometric detection (AD) when operating in chloride c

63 ormance anion-exchange chromatography-pulsed amperometric detection (HPAEC-PAD).

64 e chromatography (HPAEC) coupled with pulsed amperometric detection (PAD) was optimised in order to q

65 e chromatography (HPAEC) coupled with pulsed amperometric detection (PAD) was optimised to separate w

66 exchange chromatography (HPAEC) with pulsed amperometric detection (PAD).

67 ce anion exchange chromatography with pulsed amperometric detection and capillary gas chromatography

68 used to enhance the electron transfer in the amperometric detection as well as for covalent immobiliz

69 Amperometric detection at -0.20 V vs Ag pseudoreference

70 otin-miRNA with streptavidin-HRP conjugates, amperometric detection at -0.20V was carried out using t

71 erest in applying liquid chromatography with amperometric detection at a silver electrode (LC-EC-Ag)

72 cific hairpin DNA sequence for IL-8 mRNA and amperometric detection at disposable dual screen printed

73 ation chain reaction (HCR) amplification and amperometric detection at disposable screen-printed carb

74 Amperometric detection demonstrates that individual exoc

75 lements combines (i) potentiometric and (ii) amperometric detection effects at the microscale.

76 We report amperometric detection in an acoustically levitated drop

77 r Hg complexes were analyzed using HPLC with amperometric detection in samples of Asparagus acutifoli

78 to perform low pressure chromatography with amperometric detection is presented.

79 This device shows a SERS and amperometric detection limit near 1 and 100 nM, respecti

80 phosphate level has been developed using an amperometric detection method based on the use of a mini

81 This technique more closely resembles the amperometric detection method used in commercial self-mo

82 ts and by flow injection analysis (FIA) with amperometric detection monitoring the response of gallic

83 The immunoreaction and the subsequent amperometric detection occurred directly onto the SPE su

84 The modified electrodes were used for the amperometric detection of a model DNA target sequence as

85 sor, were developed for on line simultaneous amperometric detection of ascorbic acid (AA) and antioxi

86 inum microelectrode arrays on the stochastic amperometric detection of citrate-stabilized silver nano

87 Amperometric detection of consumed oxygen was monitored

88 dopamine by the aptamer allowed a selective amperometric detection of dopamine within the physiologi

89 Hydrodynamic amperometric detection of ethanol on the ADH-Nafion/NiOx

90 The amperometric detection of H(2)O(2) and N(2)H(4) was carr

91 PBNP-modified electrodes enabled amperometric detection of H2O2 in the 3D-printed channel

92 of this enzyme within laponite clay, allows amperometric detection of L-erythrulose released upon TK

93 The amperometric detection of NADH at 0.200V showed a sensit

94 The dynamic linear range for the amperometric detection of NAP had an upper limit of 300

95 Amperometric detection of NO using these two electrode s

96 The demonstration of prolonged amperometric detection of oxygen in room-temperature ion

97 , the biomimetic sensor was employed for the amperometric detection of paraoxon-ethyl, fenitrothion a

98 Q) and graphene oxide (GO) for low-potential amperometric detection of reduced glutathione (GSH) in p

99 We introduce the stochastic amperometric detection of silver nanoparticles on-chip u

100 Amperometric detection of the redox-inactive probe ions

101 S-nitrosocysteine, and S-nitrosoalbumin) and amperometric detection of the resulting nitric oxide (NO

102 um tetracyanoborate gel based sensor allowed amperometric detection of thiocholine at +400 mV vs. Ag/

103 application of batch-injection analysis with amperometric detection to determine the antioxidant capa

104 The BIA system with amperometric detection using a glassy-carbon electrode p

105 The amperometric detection using the bi-enzyme platform was

106 sposable screen-printed carbon electrode for amperometric detection using the hydroquinone (HQ)/H2O2

107 Amperometric detection was accomplished at -0.20 V (vs.

108 Amperometric detection was carried out following oxygen

109 Finally, multipulsed amperometric detection was employed in order to obtain m

110 n-exchange chromatography method with pulsed amperometric detection was initially developed to analyz

111 Subsequent amperometric detection was realized by spiking 10 microL

112 Amperometric detection was used for flow injection analy

113 the DNA-ERE-modified electrodes, followed by amperometric detection with application of -0.2V vs. Ag|

114 p19 viral protein as capture bioreceptor and amperometric detection with the H2O2/hydroquinone (HQ) s

115 A chromatographic method, using amperometric detection, for the sensitive determination

116 rate addition and fast electrochemical pulse amperometric detection.

117 different experimental conditions and in SDM amperometric detection.

118 ce anion-exchange chromatography with pulsed amperometric detection.

119 A silver amperometric detector coupled to liquid chromatography (

120 into the flow injection system preceding the amperometric detector using a modified screen printed el

121 thacrylate) (PMMA) substrate connected to an amperometric detector.

122 The dual system allowed the simultaneous amperometric determination of both species by measuring

123 hed to G/PVP/PANI-modified electrode for the amperometric determination of cholesterol.

124 posed system was applied to the differential amperometric determination of glucose content in soft dr

125 ctrode setup and also responded well for the amperometric determination of H2O2 over a linear range o

126 cadic conversion reactions that result in an amperometric electrochemical signal.

127 Amperometric, electrochemical, enzyme-based biosensors f

128 series of electrochemical sensors, including amperometric, electrochemiluminescence, photoelectrochem

129 Measurements carried out with an amperometric electrode demonstrated that incubation with

130 Gold thin-film amperometric electrodes were used as multi-transducers.

131 port herein the development of a disk-shaped amperometric enzymatic biosensor for detection of D-seri

132 In this work we have developed an amperometric enzymatic biosensor in a paper-based platfo

133 Using an amperometric enzymatic biosensor, we demonstrate that gl

134 the fermentation process in wort samples by amperometric enzymatic biosensors developed by our resea

135 a were collected by using the rapid (<5 min) amperometric enzyme assays and pH-sensitive iridium oxid

136 treatment plant (WWTP) were analyzed with an amperometric enzyme-based biosensor array in a flow-inje

137 An amperometric flow system for glucose determination in bl

138 able approach to performance improvement for amperometric gas sensing.

139 An amperometric glucose biosensor based on immobilization o

140 A novel polypyrrole (PPy)-based bilayer amperometric glucose biosensor integrated with a permsel

141 for the development of an interference-free amperometric glucose biosensor.

142 First-generation amperometric glucose biosensors incorporating alkanethio

143 eously implanted nitric oxide (NO)-releasing amperometric glucose biosensors was evaluated in swine f

144 st electrodes to develop simple and portable amperometric glucose biosensors.

145 In nonenzymatic amperometric glucose detection, the PtAu-MnO(2) binary n

146 An amperometric glucose enzyme electrode was developed by t

147 king it the smallest fully integrated planar amperometric glucose sensor area reported to date.

148 fied graphite rod electrode was improved for amperometric glucose sensor based on glucose oxidase (GO

149 Using the well-known GOx-based amperometric glucose sensor to validate our strategy, we

150 is described for the construction of a novel amperometric glutamate biosensor based on covalent immob

151 assy carbon electrode in order to prepare an amperometric hydrogen peroxide (H2O2) sensor.

152 use as an effective electrode material in an amperometric hypoxanthine (Hx) sensor for meat freshness

153 i.e. the time at which the first blip on the amperometric i-t experiment occurs.

154 Amperometric i-t method was used for the determination o

155 Under optimized conditions, amperometric i-t method was used for the quantification

156 Blips were observed in the amperometric i-t response, and their frequency scaled li

157 ber UME, cathodic blips were observed in the amperometric i-t response.

158 l methods including cyclic voltammograms and amperometric images of high spatial and temporal resolut

159 ct with a surface, localized high resolution amperometric imaging can be achieved with the two carbon

160 of high-resolution SECM-SICM for low-current amperometric imaging of nanosystems, and is a step towar

161 Two different fibrinogen (Fib) amperometric immunosensing designs based on the use of m

162 affecting the analytical performance of the amperometric immunosensing strategy were optimized.

163 A new amperometric immunosensor based on the covalent immobili

164 analytical performance of a novel integrated amperometric immunosensor based on the immobilization of

165 In this work, an amperometric immunosensor for detection of myeloperoxida

166 An amperometric immunosensor for the determination of the h

167 The first amperometric immunosensor for the quantification of TGF-

168 In this context, an amperometric immunosensor was developed for the identifi

169 rnative, particularly electrochemical (i.e., amperometric, impedance, potentiometric or conductimetri

170 In the present work, an amperometric inhibition biosensor for the determination

171 alytic/inhibition reaction, the experimental amperometric kinetic plots were reproduced from numerica

172 sing a hybrid polydimethylsiloxane/polyester amperometric lab-on-a-chip (LOC) microsystem with an int

173 ing modalities, comprising a three-electrode amperometric lactate biosensor and a bipolar electrocard

174 Herein we describe a self-powered amperometric lactate biosensor that utilizes a dimethylf

175 The dual amperometric magnetobiosensor was applied to the direct

176 A highly sensitive amperometric magnetoimmunosensor for the determination o

177 hput capability (100 electrodes) for on-chip amperometric measurement of neurotransmitter release.

178 The amperometric measurement was performed at an applied pot

179 jection of the substrate enabled a real-time amperometric measurement with a detection limit of 6x10(

180 n range from 5.0 to 300.0 microM obtained by amperometric measurement.

181 BiNPs/Tyr biosensor is evaluated by amperometric measurements at -200 mV DC and a linear ran

182 Chronopotentiometric and amperometric measurements at several tip-substrate dista

183 It is shown that amperometric measurements enable 200 nM ammonium to be d

184 Sensitive amperometric measurements obtained from PPy-PNP-XOD-Fe(C

185 Amperometric measurements of exocytosis in mouse chromaf

186 lized corrosion was demonstrated by scanning amperometric measurements of oxygen distribution above a

187 In vitro and in vivo amperometric measurements revealed that sigma1R activati

188 The amperometric measurements showed that the fabricated SiO

189 Amperometric measurements were carried out at -0.20V by

190 Amperometric measurements were performed using hydrogen

191 s found during potentiostatic or multipulsed amperometric measurements.

192 t/Ppy/GOx electrodes were measured using the amperometric method at the potential of 0.7 V in steps o

193 tudy reports a novel enzyme-free, label-free amperometric method for direct detection of hemoglobin A

194 An amperometric method is reported that compensates for the

195 Reduction of PEDOT-GO was carried out by amperometric method.

196 Cortical microdialysis and amperometric methods revealed that, whereas wild-type an

197 s otherwise difficult to study with previous amperometric methods.

198 by stopped-flow absorption spectroscopy and amperometric methods.

199 tivity and diffusion limited protocols (i.e. amperometric microbial respirometry).

200 ization, and physiological application of an amperometric microbiosensor based on lactate oxidase and

201 First, we developed and characterized amperometric microbiosensors for monitoring lactate and

202 cus on two sensing principles: nanopores and amperometric microelectrode devices.

203 gold nanoparticles (AuNPs) and NO-selective amperometric microsensor for the detection and quantific

204 ation under oxic and anoxic conditions using amperometric microsensors.

205 n stimulation was successfully observed from amperometric monitoring.

206 An amperometric multi-biosensor based on lactate and glucos

207 An improved planar amperometric nitric oxide (NO) sensor with enhanced sele

208 of visible photolysis (i.e., 500-550 nm) and amperometric NO detection to quantify RSNOs with greater

209 erogel polymer were utilized to fabricate an amperometric NO microfluidic sensor with low background

210 assay, a chemiluminescence analyzer, and an amperometric NO sensor.

211 An amperometric non-enzymatic glucose sensor was developed

212 We combined in vitro amperometric, optical analysis of fluorescent false neur

213 The amperometric oxidation of glucose at NiONP-DNA/GCE, yiel

214 enzymatic turnover rate was detected through amperometric oxidation of the H2O2 byproduct, directly r

215 des in a lateral cortical network, revealing amperometric oxygen correlation patterns consistent with

216 duction of nitrite ions) is combined with an amperometric oxygen sensor within a dual lumen catheter

217 ontents are then oxidized, and a current (or amperometric) peak results from each vesicle that bursts

218 (Pt) wire electrode, leading to satisfactory amperometric performance; (2) the ink was deposited onto

219 ratio of 1:8 (6.2U/mL XOD: 49.6 U/mL PNP) in amperometric phosphate biosensor.

220 n of two electrochemical (potentiometric and amperometric) phosphate biosensors is described and comp

221 method is shown to be fully compatible with amperometric PO2 sensing.

222 This review summarizes electrochemical (amperometric, potentiometric, impedimetric and conductom

223 Electrochemical biosensors are based on amperometric, potentiometric, impedimetric, and conducto

224 A novel amperometric pyranose oxidase (PyOx) biosensor based on

225 f SPdCEs allows the simultaneous independent amperometric readout for each target miR to be measured.

226 rode arrays (MEAs) to perform high-frequency amperometric recording of local pO2 and local field pote

227 2,2-diphenyl-1-picrylhydrazyl (DPPH.) as an amperometric redox indicator, with a pencil lead working

228 The results from amperometric response and impedance measurement delivere

229 ies due to the almost convection-independent amperometric response associated with submum electrodes.

230 torage stability (gave 53.57% of the initial amperometric response at the end of 33th day).

231 A relationship between amperometric response due to glucose, and cell number in

232 The novel biosensor showed a linear amperometric response for glucose within a concentration

233 The novel biosensor showed a linear amperometric response for glucose within a concentration

234 The amperometric response measured at -0.20 V versus the Ag

235 We hypothesize that the amperometric response of a 1 mum-diameter Pt tip is less

236 s used for the quantification of CC, and the amperometric response of the biosensor was linear over t

237 fferent experimental variables affecting the amperometric response of the immunosensor were also opti

238 Amperometric response of the P(EDOT-PdBPI-co-HKCN)/GOx e

239 The amperometric response to CBZ was measured at +0.73 V vs.

240 lly by immobilized CAT to obtain a sensitive amperometric response to cholesterol.

241 This biosensor showed fast amperometric response to gallic acid, which is usually c

242 The amperometric response to peroxide was determined after 5

243 e constructed enzyme electrodes exhibited an amperometric response toward glucose at 0.6 V vs SCE, de

244 The decrease in the amperometric response was proportional to the concentrat

245 The amperometric response with cholesterol had a linear rang

246 reen-printed carbon electrode (SPCE) and the amperometric responses at -0.20 V were measured.

247 n was determined based on the differences in amperometric responses at cathodic peak (+0.2V) of potas

248 Hybridization was monitored by recording the amperometric responses measured at -0.10 V (vs an Ag pse

249 The amperometric responses measured at -0.2 V vs. the silver

250 Then the amperometric responses of the Pt/Ppy/GOx electrodes were

251 from "linear" at very short time, where the amperometric responses of the supported microwire closel

252 ES supported by a rough nanotip gives higher amperometric responses to tetrabutylammonium than expect

253 Amperometric responses were generated at -0.6 to 0.6V, a

254 r, the microbiosensors produced steady-state amperometric responses which showed linearity up to 5 mM

255 The amperometric responses, i.e., Deltai as a function of th

256 mprove the reproducibility in length and the amperometric responses.

257 Amperometric results demonstrated that GF provided a pro

258 In this work, a highly structural dependent amperometric scheme was proposed for the determination o

259 Automated amperometric sensing of glucose solutions in microtiter-

260 e development of biosensing scaffold for the amperometric sensing of H2O2 and total cholesterol in hu

261 Amperometric sensing of H2O2 at 0.2 nM level without any

262 es that are critical in applications such as amperometric sensing, photocatalysis and electrocatalysi

263 An amperometric sensor based on a bi-enzyme modified electr

264 -cost miniaturized MATFEs can be combined in amperometric sensor devices to easily and cheaply detect

265 We report a novel and sensitive amperometric sensor for chlorpromazine (CPZ) based on re

266 dation and reduction of nitrite, a sensitive amperometric sensor for nitrite determination was propos

267 and reliable cobalt oxide (Co(3)O(4)) based amperometric sensor for the determination of NADH.

268 The graphite-based amperometric sensor gave a selective and linear response

269 se oxidation in 0.1M NaOH, based on which an amperometric sensor has been developed.

270 irtually identical to that of a conventional amperometric sensor.

271 nables the NiO-HMS to be used in enzyme-free amperometric sensors for glucose determination.

272 ance spectroscopy (EIS) electrodes and three amperometric sensors in two microfluidic channels assess

273 high-precision bioinstrumentation board and amperometric sensors, produced exclusively using standar

274 capacitance measurements in combination with amperometric serotonin detection.

275 The developed microfluidic sensor records an amperometric signal created by the solution movement med

276 ponents for the real-time measurement of the amperometric signal of 48 electrodes.

277 Specifically, in the amperometric signal of the electrodes after 200th cycles

278 creen-printed carbon working electrodes, the amperometric signal using the system hydroquinone/H2O2 w

279 horseradish peroxidase, which results in an amperometric signal via direct electron transfer.

280 For N(2)H(4), the amperometric signals are linearly proportional to concen

281 At 0.1V, the amperometric signals are linearly proportional to H(2)O(

282 Amperometric signals at 1mM of glucose were 17.9muA unde

283 y upon immobilization and exhibit changes to amperometric signals upon interaction with various conce

284 ecreased frequency and prolonged kinetics of amperometric spikes induced by depolarization, with shor

285 nsor was capable of resolving small and fast amperometric spikes reporting release from individual ve

286 erial from gland cells monitored as distinct amperometric spikes.

287 Voltammetric and amperometric studies showed that: (i) AP oxidation on th

288 Data for the flow injection amperometric system devised for detection of lysine base

289 Amperometric technique is a commonly used one.

290 The results obtained from the amperometric technique were compared with the values obt

291 rating both open circuit potential (OCP) and amperometric techniques have been conceptualized and imp

292 Amperometric techniques were employed to detect GSH sens

293 of differential pulse voltammetry (DPV) and amperometric techniques, the obtained sensitivities were

294 were investigated by cyclic voltammetry and amperometric techniques.

295 2O2 was described by cyclic voltammetric and amperometric techniques.

296 ch integration resulted in a uniquely shaped amperometric trace that allowed for the selective picomo

297 Lastly, a quantitative approach to filtering amperometric traces of exocytosis based on the rise time

298 Platinum disc electrodes were used as amperometric transducers.

299 We report on the design of an amperometric tyrosinase-based biosensor using a self-ass

300 ogies based on potentiometric, impedimetric, amperometric, voltammetric biosensors for the detection