We propose a new geometry for nanogap electrochemical sensing devices. These devices consist of two closely spaced side-by-side electrodes which work under redox cycling conditions. Using finite element simulations, we investigate the effects of different geometric parameters on the redox cycling signal amplification to gain insight into the electrochemical sensing performance of the device design. This will allow optimizing the sensor performance of devices to be fabricated in the future. (C) 2015 Elsevier B.V. All rights reserved
Interference or crosstalk of coexisting redox species results in overlapping of electrochemical sign...
Interference or crosstalk of coexisting redox species results in overlapping of electrochemical sign...
Interference or crosstalk of coexisting redox species results in overlapping of electrochemical sign...
We propose a new geometry for nanogap electrochemical sensing devices. These devices consist of two ...
We propose a new geometry for nanogap electrochemical sensing devices. These devices consist of two ...
We propose a new geometry for nanogap electrochemical sensing devices. These devices consist of two ...
We propose a new geometry for nanogap electrochemical sensing devices. These devices consist of two ...
We propose a new geometry for nanogap electrochemical sensing devices. These devices consist of two ...
Interference or crosstalk of coexisting redox species results in overlapping of electrochemical sign...
Interference or crosstalk of coexisting redox species results in overlapping of electrochemical sign...
Nanogap electrodes have uses in fields such as chemical sensing, molecular transport, plasmonics and...
<p>We report a strategy for the fabrication of a new type of electrochemical nanogap transducer. The...
We report a strategy for the fabrication of a new type of electrochemical nanogap transducer. These ...
We report a strategy for the fabrication of a new type of electrochemical nanogap transducer. These ...
Interference or crosstalk of coexisting redox species results in overlapping of electrochemical sign...
Interference or crosstalk of coexisting redox species results in overlapping of electrochemical sign...
Interference or crosstalk of coexisting redox species results in overlapping of electrochemical sign...
Interference or crosstalk of coexisting redox species results in overlapping of electrochemical sign...
We propose a new geometry for nanogap electrochemical sensing devices. These devices consist of two ...
We propose a new geometry for nanogap electrochemical sensing devices. These devices consist of two ...
We propose a new geometry for nanogap electrochemical sensing devices. These devices consist of two ...
We propose a new geometry for nanogap electrochemical sensing devices. These devices consist of two ...
We propose a new geometry for nanogap electrochemical sensing devices. These devices consist of two ...
Interference or crosstalk of coexisting redox species results in overlapping of electrochemical sign...
Interference or crosstalk of coexisting redox species results in overlapping of electrochemical sign...
Nanogap electrodes have uses in fields such as chemical sensing, molecular transport, plasmonics and...
<p>We report a strategy for the fabrication of a new type of electrochemical nanogap transducer. The...
We report a strategy for the fabrication of a new type of electrochemical nanogap transducer. These ...
We report a strategy for the fabrication of a new type of electrochemical nanogap transducer. These ...
Interference or crosstalk of coexisting redox species results in overlapping of electrochemical sign...
Interference or crosstalk of coexisting redox species results in overlapping of electrochemical sign...
Interference or crosstalk of coexisting redox species results in overlapping of electrochemical sign...
Interference or crosstalk of coexisting redox species results in overlapping of electrochemical sign...