ライフサイエンスコーパス: electrochemical

1 sport ions and electrons/holes, as tested in electrochemical absorption spectroscopy and organic elec

2 tested up to 1230 K, ii) exceptionally high electrochemical activity for the CO(2) reduction reactio

3 lyte media to address contemporary structure-electrochemical activity problems.

4 d to study the crystallographic transitions, electrochemical activity, and Li-ion diffusivity upon li

5 Electrochemical alcohol oxidation by NiOOH has been unde

6 This NP-catalyzed electrochemical allylic alkylation expands the synthetic

7 n carbon support) is designed for catalyzing electrochemical allylic alkylation in water/isopropanol

8 Electrochemical analyses are presented together with the

9 Bio-electrochemical analysis confirms that the antifouling S

10 Electrochemical analysis of the FeAg NPs revealed a fara

11 d technical breakthroughs including optical, electrochemical and electrical biosensors for exosomes d

12 By means of electrochemical and electrical measurements in atomic fo

13 Simultaneous collection of electrochemical and fluorescence signals gives valuable

14 Electrochemical and fluorometric quantification of a des

15 Here we combine electrochemical and in situ spectroscopic methods, parti

16 SPR confirmed the results from earlier electrochemical and SAXS studies stating that the closed

17 This review focuses on the electrochemical and spectroelectrochemical studies that

18 Crystallographic, computational, electrochemical, and optical studies were performed to c

19 future development of synthetic 2D CCFs for electrochemical applications, which concerns novel monom

20 Electrochemical aptamer-based (E-AB) sensors offer a pow

21 In the present study, a sensitive label-free electrochemical aptasensor is introduced to measure afla

22 er-based optical aptasensors and paper-based electrochemical aptasensors according to their output si

23 origin, basic principles and development of electrochemical aptasensors are introduced.

24 ilized as the sensing layer for reagent-free electrochemical AST.

25 ndigo 4-7 shows multi-redox waves with a low electrochemical band gap, which signifies the tuning of

26 The electrochemical behavior of vanillin (VAN) was studied o

27 12)](2-) cluster does not display reversible electrochemical behavior, perfunctionalization of this s

28 An electrochemical behaviour of FNX was studied on a glassy

29 lack has been re-discovered in the design of electrochemical (bio)sensors thanks to its interesting e

30 view of the literature on carbon black-based electrochemical (bio)sensors, highlighting current trend

31 Recent key innovations in flexible electrochemical bioelectronics from electrochemical sens

32 ytical technologies are employed in flexible electrochemical bioelectronics, including ion-selective

33 n excellent platform for simple and low-cost electrochemical biosensor applications.

34 Label-free affinity electrochemical biosensors constructed with semiconducto

35 Applications of electrochemical biosensors for the detection of pathogen

36 rld are focused on developing novel wearable electrochemical biosensors that can noninvasively and co

37 Recently, electrochemical biosensors with the integration of nanom

38 he detection of phenolic traces by HRP-based electrochemical biosensors, yet in a more straightforwar

39 h demonstrates that the developed label-free electrochemical C-MEMS based PDGF-BB aptasensor is highl

40 Electrochemical calcination produces concentrated gas st

41 enzoquinone) (2-SO(4)), are shown to possess electrochemical capacities of up to 195 mAh/g.

42 ecule can lead to the controlled chemical or electrochemical capture and release of UO(2)(2+) in mono

43 ction of holes and electrons, also known as "electrochemical catalysis", is a little explored approac

44 rating individually a Nernstian slope in one electrochemical cell allows to amplify the signal and as

45 BPM)], no chemical input was required in the electrochemical cell and an acidic stream was produced t

46 d that can be used to periodically rinse the electrochemical cell and toilet.

47 entiometric measurements by using a combined electrochemical cell composed of several identical ion-s

48 guidelines pertaining to the use of scanning electrochemical cell microscopy (SECCM) in aprotic solve

49 The electrochemical cell provides local cyclic voltammograms

50 he urine over the cathodic compartment of an electrochemical cell, the pH was increased due to the pr

51 n a continuous system using a H(2)-recycling electrochemical cell.

52 positive and negative electrodes in the full electrochemical cell.

53 gating bioreactor broth with just an abiotic electrochemical cell.

54 o undergo ring-opening polymerization inside electrochemical cells to form solid-state polymer batter

55 ich are not observed in bulk or conventional electrochemical cells.

56 r the design of cathode materials in aqueous electrochemical cells.

57 cell-containing drops directly on top of the electrochemical cells.

58 Electrochemical characterization of [Co(13)C(2)(CO)(24)]

59 Herein, STM imaging in combination with electrochemical characterization provides a direct contr

60 cept, the capacity to utilize the Mn-MOF for electrochemical CO(2) fixation and to spectroscopically

61 d it has a high activity and selectivity for electrochemical CO(2) reduction (CO(2)R) to CO.

62 In this regard, electrochemical CO(2) reduction (ECR) powered by renewab

63 active ligands work together to enable rapid electrochemical CO(2) reduction at moderate overpotentia

64 In this study, the electrochemical CO(2) reduction mechanism over the Cu ca

65 Electrochemical CO(2) reduction reaction (CO(2)RR) to li

66 In the electrochemical CO(2) reduction reaction (CO(2)RR), cont

67 a total Faradaic efficiency of up to 95% for electrochemical CO(2) reduction to CO.

68 Palladium is a promising material for electrochemical CO(2) reduction to formate with high Far

69 Here we report an all-solid-state electrochemical CO(2)RR system for continuous generation

70 Electrochemical CO[Formula: see text] reduction is a pot

71 ferroelectrics, ionic conductors as well as electrochemical containers.

72 Electrochemical corrosion analyses strongly suggested th

73 anodes, and investigate their galvanostatic electrochemical cycling behaviors.

74 ments in a nanopore pipet and vesicle impact electrochemical cytometry (VIEC) at an electrode as the

75 Vesicle impact electrochemical cytometry (VIEC) was used to determine t

76 n of CTCs from breast cancer with a focus on electrochemical cytosensors.

77 Combining EPR and electrochemical data, we quantify the free energy of Pd

78 The electrochemical degradation of two solvent-based electro

79 e interfacial microreactor; ii) "reversible" electrochemical derivatization; and iii) in situ mechani

80 nt tool to evaluate the energy efficiency of electrochemical desalination processes.

81 Here, we achieved rapid and homogeneous electrochemical detection by fabricating a high-affinity

82 gh-performance liquid chromatography with an electrochemical detection method for measuring plasma ca

83 Applications of electrochemical detection methods in microfluidic paper-

84 interstitial fluids, tear and saliva for the electrochemical detection of biomarkers through various

85 Here, we demonstrate rapid label-free electrochemical detection of SARS-CoV-2 antibodies using

86 the lipid membrane opening/permeability, the electrochemical detection of single redox DMPC liposome

87 The electrochemical detection of synthetic redox DMPC (1,2-d

88 romotor-based immunoassay and a microfluidic electrochemical detection was explored as a new approach

89 rofluidic (flow-controlled ultraminiaturized electrochemical detection, high sensitivity, and low-cos

90 e the operating task to zero, and 4) perform electrochemical detection.

91 lysts that catalyze the same reactions as in electrochemical devices.

92 rk, a facile, label-free, and ultrasensitive electrochemical DNA biosensor has been developed, based

93 Subsequently, a novel species-specific electrochemical DNA probe (locked nucleic acid, LNA) was

94 r fouling, which is a persistent problem for electrochemical dopamine sensors.

95 we investigate the fundamental mechanism of electrochemical doping in an oligoether-functionalized 3

96 alysts have attracted extensive interests in electrochemical energy conversion and storage because of

97 c-structure engineering, and applications in electrochemical energy conversion and storage, including

98 d electric field, which directly affects the electrochemical energy storage and conversion processes

99 between energy density and power density for electrochemical energy storage devices, but efficient ap

100 he role of separator engineering for various electrochemical energy storage devices.

101 n batteries have remained a state-of-the-art electrochemical energy storage technology for decades no

102 e interest as fast ionic charge carriers for electrochemical energy storage.

103 romising strategies for enabling stretchable electrochemical energy storage.

104 terials, enhancing the device performance of electrochemical energy.

105 ion to this problem by allowing for multiple electrochemical experiments from a single sample.

106 The electrochemical experiments were in accordance with Rama

107 gest that the corresponding data provides an electrochemical fingerprint that could help in comparing

108 itchable AFM-SECM probes is demonstrated for electrochemical force spectroscopic studies at model sam

109 d implemented in a construction of DNA-based electrochemical genosensor for sensitive, convenient and

110 cell membranes, often by utilizing the H(+) electrochemical gradient.

111 ion metal borides are emerging as substitute electrochemical hydrogen evolution reaction (HER) cataly

112 solution for visualizing HER active sites as electrochemical images.

113 losed bipolar ultramicroelectrodes (UMEs) in electrochemical imaging applications.

114 We report here a low-cost electrochemical immunoarray with unprecedented sensitivi

115 A novel and rapid Electrochemical Immunosensing platform was developed for

116 ort on the design and development of a novel electrochemical immunosensor for the detection of cancer

117 Here, we report a cotton-tipped electrochemical immunosensor for the detection of severe

118 In this work an electrochemical immunosensor for the toxic microalgae Al

119 The electrochemical immunosensor is able to reach a limit of

120 Here we describe the development of a dual electrochemical immunosensor microchip for simultaneous

121 from ionic conductivity measurements such as electrochemical impedance spectroscopy (EIS) (which meas

122 Electrochemical measurements were based on Electrochemical Impedance Spectroscopy (EIS) and Differe

123 f standard chemical analytical processes and electrochemical impedance spectroscopy (EIS) in the char

124 The cyclic voltammetry (CV) and electrochemical impedance spectroscopy (EIS) showed fast

125 ry, scanning electronic microscopy (SEM) and electrochemical impedance spectroscopy (EIS).

126 7 (PARK7/DJ-1) was successfully detected by electrochemical impedance spectroscopy after electrode f

127 e RTIL- CO(2) interactions through AC- based electrochemical impedance spectroscopy and DC- based chr

128 Electrochemical impedance spectroscopy data generated un

129 In addition, the electrochemical impedance spectroscopy studies observed

130 ules were immobilised on gold electrodes and Electrochemical Impedance Spectroscopy was to investigat

131 A time dependent sialylation was followed by electrochemical impedance spectroscopy, proving that the

132 The biosensor was characterized by electrochemical impedance spectroscopy.

133 e facilitation of redox-neutral reactions by electrochemical injection of holes and electrons, also k

134 l circuit is further wired with a downstream electrochemical interface, delivering an integrated bioa

135 During chemiosmosis, a transmembrane electrochemical ion gradient is harnessed by a rotary AT

136 By tackling the intrinsic chemical/electrochemical issues, the proposed strategy provides a

137 present a simple, low-cost technique, termed electrochemical lipolysis (ECLL).

138 GMs) remains an elusive aim, especially with electrochemical means.

139 eity), which cannot be obtained solely by an electrochemical means.

140 The electrochemical measurements for glucose binding on the

141 Electrochemical measurements were based on Electrochemic

142 m is able to perform simultaneously 128 (bio)electrochemical measurements with an independent electri

143 tional approaches for calculating BDFEs from electrochemical measurements, the OCP method directly me

144 ence with notable utility in biophysical and electrochemical measurements.

145 Label free biosensors relying on electrochemical, mechanical, and mass based detection of

146 lated hydroxy-toluene Ar(4)OH, are effective electrochemical mediators for the electrocatalytic oxida

147 uently, TIMS may arise as a powerful tool in electrochemical metabolism studies.

148 A simple electrochemical method employing a novel semi-circular p

149 transition-metal- and external oxidant-free electrochemical method for the C3-H sulfonylation of bio

150 rich MCOs and highlights the utility of the electrochemical method to investigate cuprous oxidase ac

151 In this work, an on-chip electrochemical method to measure endothelial permeabili

152 This study employs a novel electrochemical method to mimic the cyclic redox reactio

153 Through the photo-electrochemical method used for studying the p-n junctio

154 oped a new dual-tip glucose sensing scanning electrochemical microcopy (SECM) probe by covalently imm

155 to a faster assay in low sample volumes) and electrochemical microfluidic (flow-controlled ultraminia

156 Here, we have employed a new simple electrochemical microreactor design to oxidise an L-prol

157 The new electrochemical microreactor has unique features that al

158 pproach technique in our home-built Scanning Electrochemical Microscope (SECM) setup in which an AC p

159 This review provides a general overview of electrochemical MIP-based sensors that have been reporte

160 Therefore, we designed two ratiometric electrochemical molecular redox probes, Formaldehyde oxi

161 While the electrochemical nanoimpact technique has recently emerge

162 on (HER) and the reaction barrier of ambient electrochemical NRR are significant challenges, making a

163 141 was achieved via the first example of an electrochemical oligonucleotide-templated reaction (EOTR

164 Using electrochemical, operando/in situ spectroscopic and comp

165 B-1(6) cages produce 90-100 % H(2) O(2) from electrochemical ORR catalysis in neutral pH water, where

166 absolute protein quantitation, based on the electrochemical oxidation of a surrogate peptide combine

167 ssess molecular electrocatalytic methods for electrochemical oxidation of ammonia to dinitrogen.

168 50 mV and a 2-fold peak current increase for electrochemical oxidation of ascorbic acid, which result

169 Here we report selective electrochemical oxidation of CH(4) to methyl bisulfate (

170 Tuning adhesive properties through in situ electrochemical oxidation provides on-demand control ove

171 t) state anaerobically via both chemical and electrochemical oxidation.

172 Exploiting the power of electrochemical oxidations, this method complements the

173 An electrochemical oxygen filter is described that removes

174 xidation of As(III), a potentially important electrochemical pathway for water remediation and arseni

175 By comparing the achieved electrochemical performance and strain capability of the

176 The electrochemical performance of FLU and NF on the N-CQD@C

177 Benefitting from the above, the overall electrochemical performance of PANI-intercalated V(2) O(

178 ilicon anodes for lithium-ion batteries, the electrochemical performance of red phosphorus is plagued

179 roperties of individual NPs and maximize the electrochemical performance of the resultant NP-assemble

180 efore, the cells with MoB achieve impressive electrochemical performance, including a high capacity (

181 ailored LLO with medium-slope shows the best electrochemical performance, with a very low average vol

182 generally believed to be essential for their electrochemical performance.

183 multiple deformations while retaining their electrochemical performance.

184 rk collectively to reveal the origins of the electrochemical phenomena that enable new means of energ

185 forming during this still largely unexplored electrochemical phenomenon.

186 s, we have reported a label-free paper-based electrochemical platform targeting SARS-CoV-2 antibodies

187 The advantages of electrochemical platforms make them a strong candidate f

188 Specifically, electrochemical polymerization of dopamine (DA) was empl

189 yl aryl sulfonates increases with decreasing electrochemical potential for the two electron transfers

190 o the medium, lose the ability to define the electrochemical potential precisely in time, consequentl

191 a trisaminocyclopropenium (TAC) ion at mild electrochemical potential with visible light irradiation

192 onsidered, has the largest antimicrobial and electrochemical potential, when considering the distribu

193 toring system capable of referencing its own electrochemical potential.

194 maintaining the gradients of electrical and electrochemical potentials.

195 presence of bloodstream infections including electrochemical, potentiometric, and impedimetric sensor

196 Our three-step electrochemical procedure also allowed us to evaluate th

197 Here, we demonstrate an electrochemical process that uses neutral water electrol

198 Many electrochemical processes are governed by the transfer o

199 Electrochemical processes occurring at solid/solid and s

200 Electrochemical processes such as capacitive deionizatio

201 o replace some aspects of conventional batch electrochemical processes.

202 e ions, although its structure weakens after electrochemical processing.

203 emphasis on correlating the structures with electrochemical properties as well as assessing the devi

204 relation of structural changes with not only electrochemical properties but also energy loss processe

205 ent molecules must be understood because the electrochemical properties of a solvent can be heavily i

206 ce ligand engineering can exploit the unique electrochemical properties of individual NPs and maximiz

207 s in the quantum transport, polaritonic, and electrochemical properties of stacked van der Waals (vdW

208 red morphology, chemical characteristics and electrochemical properties of the nano-PANI:PSS were cha

209 The electrochemical properties of the new hybrids were also

210 tor groups with remarkable photophysical and electrochemical properties were synthesized.

211 Conducting polymers that possess good electrochemical properties, nanostructured morphology an

212 AN evoked DA signals in their amplitudes and electrochemical properties.

213 ites (NCs) having appropriate structural and electrochemical properties.

214 ry complex I transduces redox energy into an electrochemical proton gradient in aerobic respiratory c

215 electrochemical techniques including CV and electrochemical quartz crystal microbalance (EQCM) in su

216 Among them is the electrochemical quartz crystal microbalance (EQCM) that

217 tivities by producing sulfur vacancies using electrochemical reaction at the selected region.

218 O(5) exhibits a stable and highly reversible electrochemical reaction during repetitive Zn(2+) insert

219 ass of sensors that use light to activate an electrochemical reaction on the surface of a semiconduct

220 well as assessing the device configuration, electrochemical reaction, and performance metric.

221 allow i) voltage-controlled acceleration of electrochemical reactions by voltage-dependent formation

222 kinetics of MOF-based molecular catalysis of electrochemical reactions is of crucial importance.

223 haracterization, the breadth of inner-sphere electrochemical reactions makes this a promising method

224 al microreactor that enables acceleration of electrochemical reactions which are not observed in bulk

225 um group-metal (PGM)-free catalysts for many electrochemical reactions.

226 s a potential new application of an emerging electrochemical redox based treatment modality.

227 phase transformation, structural evolution, electrochemical redox, reaction mechanism, kinetics, and

228 Electrochemical reduction of 1 mg L(-1) DBAA in 10 mM KH

229 ene oligomers (oligo(DAE)) were deposited by electrochemical reduction of a diazonium salt on glassy

230 the formation rate of C(2+) products in the electrochemical reduction of carbon dioxide (CO(2) ) and

231 The electrochemical reduction of carbon dioxide (CO(2)) powe

232 Electrochemical reduction of carbon dioxide is a clean a

233 Particularly attractive is the electrochemical reduction of CO(2) to chemical feedstock

234 The electrochemical reduction of N(2) to NH(3) is emerging a

235 yclic voltammetry was employed to assess the electrochemical response of halide doping.

236 mpedance Spectroscopy was to investigate the electrochemical responses after the exposure of the bios

237 model was developed based on the changes in electrochemical responses of the MIP.

238 The electrochemical responses recorded showed that the perme

239 by which cells convert physical forces into electrochemical responses.

240 Facing this analytical challenge, electrochemical sensing based on molecularly imprinted p

241 Electrochemical sensing is inexpensive and flexible, and

242 flexible electrochemical bioelectronics from electrochemical sensing modalities, materials, systems,

243 Last decades, electrochemical sensing of illegal drugs has experienced

244 Herein, we report a new ultrasensitive electrochemical sensing platform for in situ monitoring

245 A quick electrochemical sensing tool by utilizing novel bioelect

246 An inexpensive and environmental friendly electrochemical sensor based on a glassy carbon electrod

247 The proposed electrochemical sensor can be promising for the developm

248 The structural characterization and electrochemical sensor features of the Cu-SWCNT-Pc hybri

249 both the developed MIPs towards BMK and the electrochemical sensor for its detection have not been p

250 logically degradable and wirelessly operated electrochemical sensor for real-time NO detection with a

251 The developed electrochemical sensor has great potential for in vitro

252 This work describes an electrochemical sensor with a biomimetic plastic antibod

253 using a DMFC as a transducing element in an electrochemical sensor, confirming the sensitive and sel

254 ntly dissolved oxygen from the surface of an electrochemical sensor.

255 ilized for modifying a GCE to generate a new electrochemical sensor.

256 Light-addressable electrochemical sensors (LAESs) are a class of sensors t

257 Consequently, microbial electrochemical sensors (MESe) are currently being inves

258 surveys state-of-the-art nanomaterials-based electrochemical sensors and biosensors for the detection

259 mising material for the development of novel electrochemical sensors and biosensors.

260 ized healthcare and health management tools, electrochemical sensors are proving to be reliable solut

261 erimental procedure were conducted to set up electrochemical sensors based on polypyrrol (PPy) molecu

262 illumination to generate a virtual array of electrochemical sensors for dopamine as a strategy for c

263 ) substrates for the development of flexible electrochemical sensors for the detection of Parkinson's

264 transferred (XTT) carbon nanomaterial-based electrochemical sensors is proposed.

265 a dense array of miniaturized (micron-scale) electrochemical sensors with high performance.

266 citons in polycrystalline pentacene using an electrochemical series of 12 different guest electron-ac

267 on the choice of organic precursors and the electrochemical set-up.

268 Here, electrochemical side reactions with molecular oxygen are

269 oelectronic devices, they are susceptible to electrochemical side-reactions with molecular oxygen dur

270 Under optimum conditions, the electrochemical signals declined as AFB1 concentrations

271 d and cone photoreceptors convert light into electrochemical signals that are transferred to second o

272 nce and low cost of Na resources, as well as electrochemical similarities with lithium (Li) based bat

273 ies of the sulfide electrolytes, such as the electrochemical stabilities of the electrolytes and the

274 ion because high ionic conductivity and poor electrochemical stability are typically observed in most

275 ecules with high ionic conductivity and high electrochemical stability is a novel approach for the ra

276 skite towards a solid-state electrolyte with electrochemical stability up to 5 V and a low activation

277 presence of minimal plasticizer, with a wide electrochemical stability window, a high room-temperatur

278 sly achieve desirable moisture stability and electrochemical stability, and provide the design princi

279 The present study evaluates three different electrochemical strategies for the oxidative homocouplin

280 Electrochemical studies carried out with [4](2+) suggest

281 ne has only been observed in low-temperature electrochemical studies.

282 The electrochemical study indicated that dithia-bis(calix)-s

283 ted in applying POMs in biological, medical, electrochemical, supramolecular and nanochemistry fields

284 Electrochemical Synchronous detection of cadmium (Cd(II)

285 Electrochemical synthesis of H(2)O(2) through a selectiv

286 f the surface signaling probe (containing an electrochemical tag), leading to the variation of the el

287 riation of the electron transfer rate of the electrochemical tag.

288 sensory properties, we will also discuss how electrochemical techniques can be used to study anion re

289 We show how combined in situ and operando electrochemical techniques can reveal the underlying mec

290 acterized by AFM and XPS as well as multiple electrochemical techniques including CV and electrochemi

291 For microbial electrochemical technologies to be successful in the dec

292 ies are transferable between these different electrochemical technologies, although there are also un

293 A disposable electrochemical test strip for the quantitative point-of

294 id response, MIPs combined with miniaturized electrochemical transducers offer the possibility to det

295 lar oxygen are shown to occur during organic electrochemical transistor (OECT) operation using high-p

296 ganic thin film transistors (OTFTs), Organic Electrochemical Transistors (OECTs) have been extensivel

297 chemical absorption spectroscopy and organic electrochemical transistors, and that exhibits low swell

298 Electrochemical treatment systems have the unique abilit

299 accomplish this, we engineered an electrical-electrochemical vertical device (EEVD) that comprises a

300 face terminations, it is determined that the electrochemical window of BDD electrodes narrows as temp