Miguel A. Abrego Tello
Affiliation confirmed via AI analysis of OpenAlex, ORCID, and web sources.
Interim Director
Also affiliated: Rakuten (United States) (2019)
Research Areas
Biomedical Subjects
Links
Biography and Research Information
OverviewAI-generated summary
Miguel A. Abrego Tello's research focuses on the development and application of microelectrode arrays for electrochemical analysis, particularly in biological and neural tissues. His work involves the design of miniaturized probes, often fabricated on polymer substrates like SU-8, incorporating individually addressable microelectrodes. He investigates techniques such as Snapshot Redox Cycling Voltammetry (Snapshot RCV) and generation-collection electrochemistry to study reaction mechanisms and heterogeneous electron transfer kinetics. Abrego Tello also models charging current dynamics at microelectrodes, with a specific focus on gold microband electrodes. His research extends to the electrochemical therapy of cancer and the evaluation of photoimmunotherapy treatments. His scholarship metrics include an h-index of 3, with 9 total publications and 45 total citations.
Metrics
- h-index: 3
- Publications: 9
- Citations: 45
Positions
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Interim Director 2026–presentSouthern Arkansas University Natural Resource Research Center ORCID
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Interim Director publications 2021–2026University of Arkansas at Fayetteville ORCID
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Postdoctoral Scientist 2025–2026Southern Arkansas University Natural Resource Research Center ORCID
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Postdoctoral Fellow 2024–2025University of Arkansas at Fayetteville Chemistry and Biochemistry Department ORCID
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Instructor 2024University of Arkansas at Fayetteville Chemistry and Biochemistry Department ORCID
Selected Publications
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Snapshot Redox Cycling Voltammetry (Snapshot RCV): Fast Generation-Collection Detection across a Wide Potential Range at a Chip-Based Microelectrode Array (2026)
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Modeling Charging Current Dynamics at Microelectrodes and their Interfaces with Electrolyte and Insulators with a Focus on Microfabricated Gold Microband Electrodes on an SU-8 Substrate (2024)
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In Situ and 2D and 3D in Silico Redox Cycling Studies for Design Optimization of Coplanar Arrays of Microband Electrodes in a 70 <i>μ</i>m × 100 <i>μ</i>m Electroactive Footprint (2024)
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The Fate of Chemical Species from a Sample Introduced into a Redox-Magnetohydrodynamics (R-MHD) Microfluidics Chamber: Influence of Diffusion within Flow Fields Near Pumping Electrodes and Walls and Under Different Experimental Conditions (2023)
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Sustaining redox-magnetohydrodynamics (R-MHD) microfluidics by switching oppositely-polarized permanent magnets: Synchronized activation and automation (2021)
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Miniaturized probe on polymer SU-8 with array of individually addressable microelectrodes for electrochemical analysis in neural and other biological tissues (2021)
Collaboration Network
Top Collaborators
- Miniaturized probe on polymer SU-8 with array of individually addressable microelectrodes for electrochemical analysis in neural and other biological tissues
- Sustaining redox-magnetohydrodynamics (R-MHD) microfluidics by switching oppositely-polarized permanent magnets: Synchronized activation and automation
- In Situ and 2D and 3D in Silico Redox Cycling Studies for Design Optimization of Coplanar Arrays of Microband Electrodes in a 70 <i>μ</i>m × 100 <i>μ</i>m Electroactive Footprint
- The Fate of Chemical Species from a Sample Introduced into a Redox-Magnetohydrodynamics (R-MHD) Microfluidics Chamber: Influence of Diffusion within Flow Fields Near Pumping Electrodes and Walls and Under Different Experimental Conditions
- Modeling Charging Current Dynamics at Microelectrodes and their Interfaces with Electrolyte and Insulators with a Focus on Microfabricated Gold Microband Electrodes on an SU-8 Substrate
Showing 5 of 6 shared publications
- Miniaturized probe on polymer SU-8 with array of individually addressable microelectrodes for electrochemical analysis in neural and other biological tissues
- In Situ and 2D and 3D in Silico Redox Cycling Studies for Design Optimization of Coplanar Arrays of Microband Electrodes in a 70 <i>μ</i>m × 100 <i>μ</i>m Electroactive Footprint
- Modeling Charging Current Dynamics at Microelectrodes and their Interfaces with Electrolyte and Insulators with a Focus on Microfabricated Gold Microband Electrodes on an SU-8 Substrate
- Sustaining redox-magnetohydrodynamics (R-MHD) microfluidics by switching oppositely-polarized permanent magnets: Synchronized activation and automation
- The Fate of Chemical Species from a Sample Introduced into a Redox-Magnetohydrodynamics (R-MHD) Microfluidics Chamber: Influence of Diffusion within Flow Fields Near Pumping Electrodes and Walls and Under Different Experimental Conditions
- Miniaturized probe on polymer SU-8 with array of individually addressable microelectrodes for electrochemical analysis in neural and other biological tissues
- Miniaturized probe on polymer SU-8 with array of individually addressable microelectrodes for electrochemical analysis in neural and other biological tissues
- Miniaturized probe on polymer SU-8 with array of individually addressable microelectrodes for electrochemical analysis in neural and other biological tissues
- Miniaturized probe on polymer SU-8 with array of individually addressable microelectrodes for electrochemical analysis in neural and other biological tissues
- Miniaturized probe on polymer SU-8 with array of individually addressable microelectrodes for electrochemical analysis in neural and other biological tissues
- Miniaturized probe on polymer SU-8 with array of individually addressable microelectrodes for electrochemical analysis in neural and other biological tissues
- Sustaining redox-magnetohydrodynamics (R-MHD) microfluidics by switching oppositely-polarized permanent magnets: Synchronized activation and automation
- The Fate of Chemical Species from a Sample Introduced into a Redox-Magnetohydrodynamics (R-MHD) Microfluidics Chamber: Influence of Diffusion within Flow Fields Near Pumping Electrodes and Walls and Under Different Experimental Conditions
- The Fate of Chemical Species from a Sample Introduced into a Redox-Magnetohydrodynamics (R-MHD) Microfluidics Chamber: Influence of Diffusion within Flow Fields Near Pumping Electrodes and Walls and Under Different Experimental Conditions
- The Fate of Chemical Species from a Sample Introduced into a Redox-Magnetohydrodynamics (R-MHD) Microfluidics Chamber: Influence of Diffusion within Flow Fields Near Pumping Electrodes and Walls and Under Different Experimental Conditions
- The Fate of Chemical Species from a Sample Introduced into a Redox-Magnetohydrodynamics (R-MHD) Microfluidics Chamber: Influence of Diffusion within Flow Fields Near Pumping Electrodes and Walls and Under Different Experimental Conditions
- The Fate of Chemical Species from a Sample Introduced into a Redox-Magnetohydrodynamics (R-MHD) Microfluidics Chamber: Influence of Diffusion within Flow Fields Near Pumping Electrodes and Walls and Under Different Experimental Conditions
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