3D-Printed Dual-Channel Flow-Through Miniaturized Devices with Dual In-Channel Electrochemical Detection

Here, we present three-dimensional-printed dual-channel flow-through miniaturized devices (3D<sub>d</sub>) with dual electrochemical detection (ED<sub>d</sub>) integrating two working electrodes each in an in-channel configuration (3D<sub>d</sub>-ED<sub>d</sub>). Prussian Blue (PB) shell-gold nanoparticles ((PB)AuNP) core-based electrochemistry was chosen for selective hydrogen peroxide determination. 3D<sub>d</sub>-ED<sub>d</sub> devices exhibited impress stability, identical intrachannel and interchannel electrochemical performances, and excellent interdevice precision with values under 9%, revealing the reliability of the design and fabrication of the devices. 3D<sub>d</sub>-ED<sub>d</sub> enabled long-term reliable hydrogen peroxide determination at physiological pH in Caco-2 cells under prooxidant stimulation demonstrating its outstanding electroanalytical performance. The results highlight the analytical versatility and trustworthiness of 3D-printing-based devices at miniaturized scale integrating advanced electrochemistry and its potential for real-time cell monitoring.

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Publication Details

Journal
Analytical Chemistry
Published
2024-12-24
DOI
https://doi.org/10.1021/acs.analchem.4c04099
Citations
9
Primary Topic
Electrochemical Analysis and Applications
Type
article
Field-Weighted Citation Impact
1.55

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article

3D-Printed Dual-Channel Flow-Through Miniaturized Devices with Dual In-Channel Electrochemical Detection

Alberto Escarpa, Miriam Chávez
9 citations
Analytical Chemistry
Electrochemical Analysis and Applications
1.55
article

3D-Printed Dual-Channel Flow-Through Miniaturized Devices with Dual In-Channel Electrochemical Detection

Alberto Escarpa, Miriam Chávez
article en
9 citations

Abstract

Here, we present three-dimensional-printed dual-channel flow-through miniaturized devices (3D<sub>d</sub>) with dual electrochemical detection (ED<sub>d</sub>) integrating two working electrodes each in an in-channel configuration (3D<sub>d</sub>-ED<sub>d</sub>). Prussian Blue (PB) shell-gold nanoparticles ((PB)AuNP) core-based electrochemistry was chosen for selective hydrogen peroxide determination. 3D<sub>d</sub>-ED<sub>d</sub> devices exhibited impress stability, identical intrachannel and interchannel electrochemical performances, and excellent interdevice precision with values under 9%, revealing the reliability of the design and fabrication of the devices. 3D<sub>d</sub>-ED<sub>d</sub> enabled long-term reliable hydrogen peroxide determination at physiological pH in Caco-2 cells under prooxidant stimulation demonstrating its outstanding electroanalytical performance. The results highlight the analytical versatility and trustworthiness of 3D-printing-based devices at miniaturized scale integrating advanced electrochemistry and its potential for real-time cell monitoring.

Analytical ChemistryVol. 97(5)
Universidad de Alcalá (ES)
Comunidad de Madrid, Agencia Estatal de Investigación
Affordable and clean energy
Openalex Percentile: Top 18%
Electrochemical Analysis and Applications
1.55
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3D-Printed Dual-Channel Flow-Through Miniaturized Devices with Dual In-Channel Electrochemical Detection — Alberto Escarpa, Miriam Chávez · Analytical Chemistry (2024) | TGRS Research Map | TGRS