Martin A. Edwards
Affiliation confirmed via AI analysis of OpenAlex, ORCID, and web sources.
Assistant Professor
Also affiliated: University of California, Riverside (1983); University of North Carolina at Chapel Hill (2014–2025); Hofstra University (1987–1998); University of Liverpool (2000–2002); University of Calgary (1989–1992); GlaxoSmithKline (United Kingdom) (2010); Novo Nordisk (Denmark) (1998–1999); University of Utah (2015–2020); Salt Lake Regional Medical Center (2016–2019); Leeds and York Partnership NHS Foundation Trust (2024); University of Warwick (2006–2013); University of North Carolina at Pembroke (2014); Communities In Schools of Orange County (2016); Continuous Plankton Recorder Survey (2018); Center for Health, Exercise and Sport Sciences (2016); ReNeuron (United Kingdom) (2011); Forest Research (2008); Tempe Union High School District (1994); Fujifilm (United Kingdom) (2009); Institute for Bioengineering of Catalonia (2010–2014); Jenner Institute (2008); Hexagon (United Kingdom) (2009); University of Greenwich (2000–2012); Universitat de Barcelona (2014); SUNY Polytechnic Institute (1983–1985)
Faculty Researcher
Research Areas
Biomedical Subjects
Biography and Research Information
OverviewAI-generated summary
Martin A. Edwards' research focuses on the development and application of electrochemical techniques for nanoscale analysis and sensing. His work investigates the fundamental electrochemical processes occurring at interfaces, particularly within nanopores and at single nanoparticle interfaces. Edwards has published research on probing RNA conformations using solid-state nanopores and mechanistic studies of conductance and single-molecule detection in polymer-electrolyte nanopores.
His laboratory also explores advanced imaging techniques, including Scanning Electrochemical Cell Microscopy (SECCM), with publications detailing analytical expressions and providing tutorials for experimental implementation. Further research extends to the simulation of electrochemical responses, such as cyclic voltammetric behavior and the combined faradaic and electrostatic contributions to voltammetric responses of monolayer redox films. Edwards has received a National Science Foundation (NSF) CAREER award for his work on "Next-Generation Electrochemical Imaging."
Metrics
- h-index: 44
- Publications: 177
- Citations: 5,948
Selected Publications
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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)
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Probing RNA Conformations Using a Polymer–Electrolyte Solid-State Nanopore (2022)
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
- Cooperative electrolyte-PEG interactions drive the signal amplification in a solid-state nanopore
- Multimodal nanoparticle analysis enabled by a polymer electrolyte nanopore combined with nanoimpact electrochemistry
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
- Asymmetric Ion Mobility and Interface Displacement Drive the Signal Enhancement in a polymer-electrolyte nanopore
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
- Asymmetric Ion Mobility and Interface Displacement Drive the Signal Enhancement in a polymer-electrolyte nanopore
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
- Cooperative electrolyte-PEG interactions drive the signal amplification in a solid-state nanopore
- Multimodal nanoparticle analysis enabled by a polymer electrolyte nanopore combined with nanoimpact electrochemistry
- 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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