Martin Andrew Edwards
Affiliation confirmed via AI analysis of OpenAlex, ORCID, and web sources.
Assistant Professor
Also affiliated: University of North Carolina at Chapel Hill (2014–2020); GlaxoSmithKline (United Kingdom) (2010); University of Utah (2015–2020); University of Warwick (2006–2013); Continuous Plankton Recorder Survey (2018); Institute for Bioengineering of Catalonia (2010–2014); Universitat de Barcelona (2014)
Research Areas
Biomedical Subjects
Biography and Research Information
OverviewAI-generated summary
Martin Andrew Edwards' research centers on electrochemical techniques and their application to nanoscale phenomena. He has investigated the mechanisms of electrochemically driven reactions, including Ni-catalyzed aryl amination, and has published on the synthesis of electroanalytical tools for studying reaction mechanisms. His work also explores high-resolution electrochemical imaging using techniques such as Scanning Electrochemical Cell Microscopy and Scanning Micropipet Contact Method, which allow for the study of electrode surface redox activity at the nanoscale.
Edwards' research extends to the electrical properties of nanoscale systems, including measurements of dielectric constants in lipid bilayers using electrostatic force microscopy and the study of voltage-rectified current in nanopores. He has also examined the kinetics and thermodynamics of gas nucleation, specifically the critical nuclei size, rate, and activation energy of H2 gas nucleation. His scholarship metrics include an h-index of 45, 178 total publications, and 6,047 total citations. He is the Principal Investigator on a National Science Foundation CAREER grant totaling $538,673 for "Next-Generation Electrochemical Imaging."
Metrics
- h-index: 43
- Publications: 118
- Citations: 5,620
Positions
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Assistant Professor 2020–presentUniversity of Arkansas Department of Chemistry and Biochemistry ORCID
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Research Assistant Professor 2016–2020University of Utah Chemistry ORCID
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Senior Research Fellow 2014–2016University of Utah Chemistry ORCID
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Post-doctoral Research Assistant 2011–2013University of North Carolina at Chapel Hill Chemistry ORCID
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Post-doctoral Research Assistant 2009–2011Institute for Bioengineering of Catalonia Nanoscale bioelectrical characterization ORCID
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Post-doctoral Research Assistant 2008–2009University of Warwick Chemistry ORCID
Selected Publications
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Holistic Analysis of Electrochemical Images (2026)
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A Nanopore Platform for Monitoring Single Nucleation Events (2026)
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Nanoscale Mapping of Stainless-Steel Corrosion (2026)
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A Look inside a Flexible Open-Source Scanning Electrochemical Probe Microscope (2025)
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A Tutorial for Scanning Electrochemical Cell Microscopy (SECCM) Measurements: Step-by-Step Instructions, Visual Resources, and Guidance for First Experiments (2025)
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Critical Role of Molecular Adsorption on Electrocatalysis at Single Nanoparticles (2025)
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Multimodal nanoparticle analysis enabled by a polymer electrolyte nanopore combined with nanoimpact electrochemistry (2024)
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Electric Potential-Driven Acid/Base Chemistry: Kinetics of Electrochemical Interfacial Proton Transfer and Transport (2024)
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Next‐Generation Nanopore Sensors Based on Conductive Pulse Sensing for Enhanced Detection of Nanoparticles (Small 4/2024) (2024)
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Next‐Generation Nanopore Sensors Based on Conductive Pulse Sensing for Enhanced Detection of Nanoparticles (2023)
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Evaluating Analytical Expressions for Scanning Electrochemical Cell Microscopy (SECCM) (2023)
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Next-Generation Nanopore Sensors for Enhanced Detection of Nanoparticles (2023)
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Simulation of the cyclic voltammetric response of an outer-sphere redox species with inclusion of electrical double layer structure and ohmic potential drop (2023)
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Simulation of the Cyclic Voltammetric Response of an Outer-Sphere Redox Species with Inclusion of Electrical Double Layer Structure and Ohmic Potential Drop (2023)
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Mechanistic Study of the Conductance and Enhanced Single-Molecule Detection in a Polymer–Electrolyte Nanopore (2023)
Federal Grants 1 $538,673 total
Collaboration Network
Top Collaborators
- Probing RNA Conformations Using a Polymer–Electrolyte Solid-State Nanopore
- Mechanistic Study of the Conductance and Enhanced Single-Molecule Detection in a Polymer–Electrolyte Nanopore
- Next‐Generation Nanopore Sensors Based on Conductive Pulse Sensing for Enhanced Detection of Nanoparticles
- Multimodal nanoparticle analysis enabled by a polymer electrolyte nanopore combined with nanoimpact electrochemistry
- Cooperative electrolyte-PEG interactions drive the signal amplification in a solid-state nanopore
Showing 5 of 8 shared publications
- Probing RNA Conformations Using a Polymer–Electrolyte Solid-State Nanopore
- Mechanistic Study of the Conductance and Enhanced Single-Molecule Detection in a Polymer–Electrolyte Nanopore
- Next‐Generation Nanopore Sensors Based on Conductive Pulse Sensing for Enhanced Detection of Nanoparticles
- Cooperative electrolyte-PEG interactions drive the signal amplification in a solid-state nanopore
- Next-Generation Nanopore Sensors for Enhanced Detection of Nanoparticles
Showing 5 of 7 shared publications
- Probing RNA Conformations Using a Polymer–Electrolyte Solid-State Nanopore
- Mechanistic Study of the Conductance and Enhanced Single-Molecule Detection in a Polymer–Electrolyte Nanopore
- Next‐Generation Nanopore Sensors Based on Conductive Pulse Sensing for Enhanced Detection of Nanoparticles
- Cooperative electrolyte-PEG interactions drive the signal amplification in a solid-state nanopore
- Next-Generation Nanopore Sensors for Enhanced Detection of Nanoparticles
Showing 5 of 7 shared publications
- Probing RNA Conformations Using a Polymer–Electrolyte Solid-State Nanopore
- Mechanistic Study of the Conductance and Enhanced Single-Molecule Detection in a Polymer–Electrolyte Nanopore
- Multimodal nanoparticle analysis enabled by a polymer electrolyte nanopore combined with nanoimpact electrochemistry
- Cooperative electrolyte-PEG interactions drive the signal amplification in a solid-state nanopore
- Asymmetric Ion Mobility and Interface Displacement Drive the Signal Enhancement in a polymer-electrolyte nanopore
- Simulation of the cyclic voltammetric response of an outer-sphere redox species with inclusion of electrical double layer structure and ohmic potential drop
- Finite Element Modeling of the Combined Faradaic and Electrostatic Contributions to the Voltammetric Response of Monolayer Redox Films
- Electric Potential-Driven Acid/Base Chemistry: Kinetics of Electrochemical Interfacial Proton Transfer and Transport
- Simulation of the Cyclic Voltammetric Response of an Outer-Sphere Redox Species with Inclusion of Electrical Double Layer Structure and Ohmic Potential Drop
- Finite Element Modelling of the Combined Faradaic and Electrostatic Contributions to the Voltammetric Response of Monolayer Redox Films
- Probing RNA Conformations Using a Polymer–Electrolyte Solid-State Nanopore
- Mechanistic Study of the Conductance and Enhanced Single-Molecule Detection in a Polymer–Electrolyte Nanopore
- Cooperative electrolyte-PEG interactions drive the signal amplification in a solid-state nanopore
- Asymmetric Ion Mobility and Interface Displacement Drive the Signal Enhancement in a polymer-electrolyte nanopore
- Probing RNA Conformations Using a Polymer–Electrolyte Solid-State Nanopore
- Mechanistic Study of the Conductance and Enhanced Single-Molecule Detection in a Polymer–Electrolyte Nanopore
- Cooperative electrolyte-PEG interactions drive the signal amplification in a solid-state nanopore
- Asymmetric Ion Mobility and Interface Displacement Drive the Signal Enhancement in a polymer-electrolyte nanopore
- Simulation of the cyclic voltammetric response of an outer-sphere redox species with inclusion of electrical double layer structure and ohmic potential drop
- Finite Element Modeling of the Combined Faradaic and Electrostatic Contributions to the Voltammetric Response of Monolayer Redox Films
- Electric Potential-Driven Acid/Base Chemistry: Kinetics of Electrochemical Interfacial Proton Transfer and Transport
- Finite Element Modelling of the Combined Faradaic and Electrostatic Contributions to the Voltammetric Response of Monolayer Redox Films
- Next‐Generation Nanopore Sensors Based on Conductive Pulse Sensing for Enhanced Detection of Nanoparticles
- Multimodal nanoparticle analysis enabled by a polymer electrolyte nanopore combined with nanoimpact electrochemistry
- Next-Generation Nanopore Sensors for Enhanced Detection of Nanoparticles
- Next‐Generation Nanopore Sensors Based on Conductive Pulse Sensing for Enhanced Detection of Nanoparticles (Small 4/2024)
- Next‐Generation Nanopore Sensors Based on Conductive Pulse Sensing for Enhanced Detection of Nanoparticles
- Multimodal nanoparticle analysis enabled by a polymer electrolyte nanopore combined with nanoimpact electrochemistry
- Next-Generation Nanopore Sensors for Enhanced Detection of Nanoparticles
- Next‐Generation Nanopore Sensors Based on Conductive Pulse Sensing for Enhanced Detection of Nanoparticles (Small 4/2024)
- Simulation of the cyclic voltammetric response of an outer-sphere redox species with inclusion of electrical double layer structure and ohmic potential drop
- Finite Element Modeling of the Combined Faradaic and Electrostatic Contributions to the Voltammetric Response of Monolayer Redox Films
- Electric Potential-Driven Acid/Base Chemistry: Kinetics of Electrochemical Interfacial Proton Transfer and Transport
- Next‐Generation Nanopore Sensors Based on Conductive Pulse Sensing for Enhanced Detection of Nanoparticles
- Next-Generation Nanopore Sensors for Enhanced Detection of Nanoparticles
- Next‐Generation Nanopore Sensors Based on Conductive Pulse Sensing for Enhanced Detection of Nanoparticles (Small 4/2024)
- Next‐Generation Nanopore Sensors Based on Conductive Pulse Sensing for Enhanced Detection of Nanoparticles
- Next-Generation Nanopore Sensors for Enhanced Detection of Nanoparticles
- Next‐Generation Nanopore Sensors Based on Conductive Pulse Sensing for Enhanced Detection of Nanoparticles (Small 4/2024)
- Next‐Generation Nanopore Sensors Based on Conductive Pulse Sensing for Enhanced Detection of Nanoparticles
- Next-Generation Nanopore Sensors for Enhanced Detection of Nanoparticles
- Next‐Generation Nanopore Sensors Based on Conductive Pulse Sensing for Enhanced Detection of Nanoparticles (Small 4/2024)
- Next‐Generation Nanopore Sensors Based on Conductive Pulse Sensing for Enhanced Detection of Nanoparticles
- Next-Generation Nanopore Sensors for Enhanced Detection of Nanoparticles
- Next‐Generation Nanopore Sensors Based on Conductive Pulse Sensing for Enhanced Detection of Nanoparticles (Small 4/2024)
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