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1 clic voltammetry and chronoamperometry at an ultramicroelectrode.
2 y application using a reusable iridium array ultramicroelectrode.
3 ning ferrocene upon each collision onto a Pt ultramicroelectrode.
4 dsorbing partly on the glass surrounding the ultramicroelectrode.
5 on of single femtoliter water droplets on an ultramicroelectrode.
6 dox enzyme molecule when it collides with an ultramicroelectrode.
7 tration of approximately 100 muM on a 25 mum ultramicroelectrode.
8 ells were measured by oxygen reduction at an ultramicroelectrode.
9 tic reduction of water at both disk and ring ultramicroelectrodes.
10 lectrodes that were previously restricted to ultramicroelectrodes.
11 centimeter) electric pulse delivered across ultramicroelectrodes.
12 and can be conveniently detected on Au and C ultramicroelectrodes.
13 symmetric single graphene nanoplatelets onto ultramicroelectrodes.
14 imilarly during voltammetric measurements on ultramicroelectrodes.
15 n array containing roughly 1000 carbon fiber ultramicroelectrodes.
16 -based MEAs consist of 16 4-mum-width square ultramicroelectrodes, 25 3-mum-width square ultramicroel
17 ity of a gold-plated iridium Nano-Band array ultramicroelectrode (6 microm by 0.2 microm, 64-microm i
18 tramicroelectrodes, or 36 2-mum-width square ultramicroelectrodes, all inside a 40 x 40 mum square SU
21 voltage signal is continuously scanned on an ultramicroelectrode and its faradaic signal is recorded.
22 containing a single faradic electrode (a Pt ultramicroelectrode) and a blocked (polarized) electrode
23 the electrode size (from macroelectrodes to ultramicroelectrodes) and shape (spherical and disc).
24 impacts of single nanoparticles (NPs) on an ultramicroelectrode are coupled with optics to identify
26 monstrate that the amorphous silicon carbide ultramicroelectrode arrays (a-SiC UMEAs) provide selecti
30 ox-active pyocyanin using transparent carbon ultramicroelectrode arrays (T-CUAs), which were made usi
32 e SECM diffusion problem with a pair of disk ultramicroelectrodes as a tip and a substrate is solved
34 oluene droplet irreversibly collides with an ultramicroelectrode biased sufficiently positive for con
35 hydroquinone from the tip to a carbon fiber ultramicroelectrode (CF UME) provides a means of quantif
39 aracterizing nanoelectrode (NE) ensembles of ultramicroelectrode dimensions (UME-NEEs) as a function
41 to glass, which is often used to encapsulate ultramicroelectrodes employed in SECM, is also found to
44 y recorded from eight independent 2-mum-wide ultramicroelectrodes from a single PC12 cell showing tha
48 oltammetry and transient amperometry on a Pt ultramicroelectrode in aqueous solutions containing vari
51 al reflectance cell containing a 25 mum gold ultramicroelectrode is employed to achieve an electroche
52 we show that electrochemistry performed with ultramicroelectrodes is perfectly suitable to monitor an
53 o nanoplatelets coming into contact with the ultramicroelectrode, making an electrical connection, an
55 nalysis of voltammetry experiments involving ultramicroelectrodes modified with thin, insulating oxid
58 ultramicroelectrodes, 25 3-mum-width square ultramicroelectrodes, or 36 2-mum-width square ultramicr
59 usional broadening, is demonstrated using an ultramicroelectrode probe to map the convective flux of
61 his was fulfilled by using dedicated working ultramicroelectrodes (Pt-black UMEs) and protecting them
62 drolysis of tetramethoxysilane along with an ultramicroelectrode (r = 13 microns) and a Ag/AgCl refer
66 ght of Ag electrodeposited on a 25 microm Pt ultramicroelectrode, showed a fastest uptake in the pres
67 ueous, aptamer-containing microdroplet on an ultramicroelectrode submerged in an organic continuous p
68 ic responses of n-type Si(100) semiconductor ultramicroelectrodes (SUMEs) immersed in air- and water-
70 lisions between insulating microbeads and an ultramicroelectrode surface are correlated to electroche
71 gle nanodroplets irreversibly adsorb onto an ultramicroelectrode surface, enzymatic activity is appar
74 conductive graphene nanoplatelets on biased ultramicroelectrode surfaces can be observed in an amper
76 yclic voltammetry and chronoamperometry with ultramicroelectrodes the current response to electrolyte
77 ret the effects of substrate shielding on an ultramicroelectrode tip during a recording of iT versus
80 esence of glucose was measured using a Clark ultramicroelectrode to determine the oxygen concentratio
82 ng and growing a single Pt NP on a tunneling ultramicroelectrode (TUME) that produces 1-40 nm or grea
83 articles (NPs) undergoing collisions at a Au ultramicroelectrode (UME) (5 mum radius) using electroca
84 of colloidal ZnO nanoparticles (NPs) on a Hg ultramicroelectrode (UME) and its application to determi
85 to a lithographically fabricated addressable ultramicroelectrode (UME) array patterned with 25 regula
86 M KCl solution using a 3.5 mum radius carbon ultramicroelectrode (UME) as the SECM tip and a 25 mum r
87 lectrochemical measurements using a platinum ultramicroelectrode (UME) as the working electrode on a
89 Under these conditions, voltammetry with an ultramicroelectrode (UME) can measure copper concentrati
90 en circuit potential (OCP) of a measuring Au ultramicroelectrode (UME) changes when Pt NPs collide wi
92 activities, which is based on a transparent ultramicroelectrode (UME) fabricated by using two-step p
93 tion of a nanopipet probe with an integrated ultramicroelectrode (UME) for concurrent SICM and scanni
94 a method of precisely positioning a Hg-based ultramicroelectrode (UME) for scanning electrochemical m
95 of single Pt nanoparticles (NPs) on a carbon ultramicroelectrode (UME) in a hydrazine (N(2)H(4)) solu
96 g current (ac) waveform is applied to a disk ultramicroelectrode (UME) in an electrochemical cell, on
97 x imaging is also carried out over a Pt-disk ultramicroelectrode (UME) in the feedback mode and subst
98 of collisions of nanoparticles (NPs) with an ultramicroelectrode (UME) is a measure of the solution c
100 CO2 was reduced at a hemisphere-shaped Hg/Pt ultramicroelectrode (UME) or a Hg/Au film UME, which wer
101 k acid (producing hydrogen) at a "submarine" ultramicroelectrode (UME) placed in the aqueous subphase
102 Formic acid was generated at a Hg on Au ultramicroelectrode (UME) tip by reduction of CO(2) in a
103 osition modulation (TPM) involves moving the ultramicroelectrode (UME) tip of a scanning electrochemi
106 deposited on the conducting Pt surface of an ultramicroelectrode (UME) to block electron transfer (ET
107 ) droplets that are dispersed in water on an ultramicroelectrode (UME) to probe the ion transfer acro
108 We detected single living bacterial cells on ultramicroelectrode (UME) using a single-particle collis
110 First, voltammograms were recorded at a Pt ultramicroelectrode (UME) with a variable of free chlori
111 py (SECM) in order to map pH over a platinum ultramicroelectrode (UME), generating hydroxide ions (OH
112 By ejecting NPs onto a closely positioned ultramicroelectrode (UME), one can study single-particle
113 dation in aqueous solution at a carbon fiber ultramicroelectrode (UME), used as the substrate, illust
114 num electrode and a 25 mum diameter platinum ultramicroelectrode (UME), we captured the rapid kinetic
124 oncentration of potassium ferrocyanide on an ultramicroelectrode (UME, radius </=150 nm), time-resolv
127 a technique to rapidly and directly examine ultramicroelectrodes (UMEs) by white light vertical scan
128 rogeneous electrochemical kinetic study with ultramicroelectrodes (UMEs) even for fast redox systems,
130 simple method of preparation of carbon paste ultramicroelectrodes (UMEs) for use as probe tips in sca
131 and use of a massive array of closed bipolar ultramicroelectrodes (UMEs) in electrochemical imaging a
133 epared an individual Pt deposit on Bi and Pb ultramicroelectrodes (UMEs) such as a single isolated at
135 ingle Lactococcus lactis bacteria at Pt disk ultramicroelectrodes (UMEs) were characterized using ele
137 roducible method for the fabrication of disk ultramicroelectrodes (UMEs) with controlled geometry is
138 llisions of murine cytomegalovirus (MCMV) on ultramicroelectrodes (UMEs), extending the observation o
139 novel fabrication protocol for Hg disc-well ultramicroelectrodes (UMEs), which retain access to stri
144 ve pH 6.5, to map the pH adjacent to various ultramicroelectrodes undergoing electrochemical processe
145 nning electrochemical microscopy (SECM) with ultramicroelectrodes using the tip generation/substrate
151 egarding O2 and H2O2 detection while Pt/IrO2 ultramicroelectrodes were more sensitive for pH measurem
154 g a 1,2-dichloroethane microdroplet onto the ultramicroelectrode with a microinjector, we are able to
155 be was synthesized by functionalizing a gold ultramicroelectrode with a self-assembled monolayer of 4
156 MEAs consisting of 16, 25, and 36 square ultramicroelectrodes with respective widths of 4, 3, and
157 tional electrodes, was extended for use with ultramicroelectrodes, with a focus on its application in
158 ed sensor fabrication and miniaturization on ultramicroelectrodes without the need for electrode surf