Robert H. Coridan
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Associate Professor
Also affiliated: California Institute of Technology (2013–2015); Dalhousie University (2022); California NanoSystems Institute (2012); University of Illinois Urbana-Champaign (2004–2010); University of California, Los Angeles (2012); Department of Physics, Mathematics and Informatics (2020); Joint Center for Artificial Photosynthesis (2013–2014); Kavli Nanoscience Institute (2013–2014); McMaster University (2022)
Faculty Researcher
Research Areas
Biomedical Subjects
Links
Biography and Research Information
OverviewAI-generated summary
Robert H. Coridan's research focuses on materials science, particularly the study of nanostructures and their applications in energy conversion and catalysis. He has investigated gas evolution in water electrolysis, the catalytic properties of covalent organic frameworks for hydrogen evolution, and the mechanisms behind porous silicon formation using in situ X-ray diffraction. His work also includes the development of photoelectrochemical water oxidation using novel oxynitride photoanodes and the electrochemical control of copper surface morphology for enhanced properties.
Coridan has received federal funding for his research, including a National Science Foundation (NSF) grant as co-PI for studying structure-optielectronic property relationships in quantum dots and another NSF grant as PI for acquiring a sputtering-evaporation system for thin film deposition. His scholarship metrics include an h-index of 18, 1,957 total citations, and 89 publications. He actively collaborates with researchers at the University of Arkansas at Fayetteville, including Samuel K. Conlin and Hamed Mehrabi, with whom he shares numerous publications.
Metrics
- h-index: 19
- Publications: 89
- Citations: 1,995
Selected Publications
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Effective medium approximation for the refractive index of stratified metal oxide composites synthesized by atomic layer deposition (2026)
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High-Efficiency Solar-To-Fuel Photoelectrochemistry in Disordered Photonic Glass Electrodes (Final Technical Report) (2026)
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Harnessing emergent multiple scattering resonances in a photonic glass structure for photoelectrochemical energy conversion (2025)
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Characterizing the stability of ultra-thin metal oxide catalyst films in non-thermal plasma CO <sub>2</sub> reduction reactions (2024)
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Characterizing the Stability of Ultra-Thin Metal Oxide Catalyst Films in Non-thermal Plasma CO2 Reduction Reactions (2024)
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Gas Evolution in Water Electrolysis (2024)
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Unlocking the secrets of porous silicon formation: insights into magnesiothermic reduction mechanism using <i>in situ</i> powder X-ray diffraction studies (2024)
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Characterizing catalyst function and transformations in the plasma reduction of CO <sub>2</sub> on atomic layer deposition-synthesized catalysts (2024)
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Unlocking the Secrets of Porous Silicon Formation: Insights into Magnesiothermic Reduction Mechanism using In-situ Powder X-ray Diffraction Studies (2024)
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Characterizing Catalyst Function and Transformations in the Plasma Reduction of CO 2 on Atomic Layer Deposition-Synthesized Catalysts (2024)
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Acoustic sensing for investigating critical heat flux enhancement during pool boiling on electrodeposited copper foams (2023)
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Modular Solar-to-Fuel Electrolysis at Low Cell Potentials Enabled by Glycerol Electrooxidation and a Bipolar Membrane Separator (2023)
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Modular solar-to-fuels electrolysis at low cell potentials enabled by glycerol electrooxidation and a bipolar membrane separator (2023)
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Modular solar-to-fuels electrolysis at low cell potentials enabled by glycerol electrooxidation and a bipolar membrane separator (2023)
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Acoustic Sensing for Investigating Critical Heat Flux Enhancement During Pool Boiling on Electrodeposited Copper Foams (2023)
Federal Grants 2 $903,383 total
MRI: Acquisition of a Sputtering-Evaporation System for Thin Film Deposition
Collaboration Network
Top Collaborators
- Probe metal binding mode of imine covalent organic frameworks: cycloiridation for (photo)catalytic hydrogen evolution from formate
- Characterizing Sustained Solar-to-Hydrogen Electrocatalysis at Low Cell Potentials Enabled by Crude Glycerol Oxidation
- Electrochemical Control of the Morphology and Functional Properties of Hierarchically Structured, Dendritic Cu Surfaces
- Characterizing catalyst function and transformations in the plasma reduction of CO<sub>2</sub> on atomic layer deposition-synthesized catalysts
- Monolithic light concentration by core–shell TiO <sub>2</sub> nanostructures templated by monodisperse polymer colloidal monolayers
Showing 5 of 12 shared publications
- Characterizing Sustained Solar-to-Hydrogen Electrocatalysis at Low Cell Potentials Enabled by Crude Glycerol Oxidation
- Electrochemical Control of the Morphology and Functional Properties of Hierarchically Structured, Dendritic Cu Surfaces
- Characterizing catalyst function and transformations in the plasma reduction of CO<sub>2</sub> on atomic layer deposition-synthesized catalysts
- Monolithic light concentration by core–shell TiO <sub>2</sub> nanostructures templated by monodisperse polymer colloidal monolayers
- Characterizing the stability of ultra-thin metal oxide catalyst films in non-thermal plasma CO <sub>2</sub> reduction reactions
Showing 5 of 12 shared publications
- Characterizing Sustained Solar-to-Hydrogen Electrocatalysis at Low Cell Potentials Enabled by Crude Glycerol Oxidation
- Characterizing the Solvent‐Induced Inversion of Colloidal Aggregation During Electrophoretic Deposition
- Modular Solar-to-Fuel Electrolysis at Low Cell Potentials Enabled by Glycerol Electrooxidation and a Bipolar Membrane Separator
- Modular solar-to-fuels electrolysis at low cell potentials enabled by glycerol electrooxidation and a bipolar membrane separator
- Modular solar-to-fuels electrolysis at low cell potentials enabled by glycerol electrooxidation and a bipolar membrane separator
Showing 5 of 6 shared publications
- Monolithic light concentration by core–shell TiO <sub>2</sub> nanostructures templated by monodisperse polymer colloidal monolayers
- Characterizing the stability of ultra-thin metal oxide catalyst films in non-thermal plasma CO <sub>2</sub> reduction reactions
- Monolithic light concentration by core-shell TiO2 nanostructures templated by monodisperse polymer colloidal monolayers
- Characterizing the Stability of Ultra-Thin Metal Oxide Catalyst Films in Non-thermal Plasma CO2 Reduction Reactions
- Effective medium approximation for the refractive index of stratified metal oxide composites synthesized by atomic layer deposition
- Unlocking the secrets of porous silicon formation: insights into magnesiothermic reduction mechanism using <i>in situ</i> powder X-ray diffraction studies
- Solid-state synthesis of UV-plasmonic Cr2N nanoparticles
- Unlocking the Secrets of Porous Silicon Formation: Insights into Magnesiothermic Reduction Mechanism using In-situ Powder X-ray Diffraction Studies
- Solid-State Synthesis of UV-Plasmonic Cr2N Nanoparticles
- Characterizing catalyst function and transformations in the plasma reduction of CO<sub>2</sub> on atomic layer deposition-synthesized catalysts
- Characterizing the stability of ultra-thin metal oxide catalyst films in non-thermal plasma CO <sub>2</sub> reduction reactions
- Characterizing Catalyst Function and Transformations in the Plasma Reduction of CO 2 on Atomic Layer Deposition-Synthesized Catalysts
- Characterizing the Stability of Ultra-Thin Metal Oxide Catalyst Films in Non-thermal Plasma CO2 Reduction Reactions
- Electrochemical Control of the Morphology and Functional Properties of Hierarchically Structured, Dendritic Cu Surfaces
- Controlled exposure of CuO thin films through corrosion-protecting, ALD-deposited TiO<sub>2</sub> overlayers
- Electrochemical control of the morphology and functional properties of hierarchically structured, dendritic Cu surfaces
- Acoustic sensing for investigating critical heat flux enhancement during pool boiling on electrodeposited copper foams
- Acoustic Sensing for Investigating Critical Heat Flux Enhancement During Pool Boiling on Electrodeposited Copper Foams
- Electrochemical Control of Copper Foam Synthesis for Critical Heat Flux Enhancement During Boiling
- Acoustic sensing for investigating critical heat flux enhancement during pool boiling on electrodeposited copper foams
- Acoustic Sensing for Investigating Critical Heat Flux Enhancement During Pool Boiling on Electrodeposited Copper Foams
- Electrochemical Control of Copper Foam Synthesis for Critical Heat Flux Enhancement During Boiling
- Acoustic sensing for investigating critical heat flux enhancement during pool boiling on electrodeposited copper foams
- Acoustic Sensing for Investigating Critical Heat Flux Enhancement During Pool Boiling on Electrodeposited Copper Foams
- Electrochemical Control of Copper Foam Synthesis for Critical Heat Flux Enhancement During Boiling
- Acoustic sensing for investigating critical heat flux enhancement during pool boiling on electrodeposited copper foams
- Acoustic Sensing for Investigating Critical Heat Flux Enhancement During Pool Boiling on Electrodeposited Copper Foams
- Electrochemical Control of Copper Foam Synthesis for Critical Heat Flux Enhancement During Boiling
- Acoustic sensing for investigating critical heat flux enhancement during pool boiling on electrodeposited copper foams
- Acoustic Sensing for Investigating Critical Heat Flux Enhancement During Pool Boiling on Electrodeposited Copper Foams
- Electrochemical Control of Copper Foam Synthesis for Critical Heat Flux Enhancement During Boiling
- Semi Transparent Three-Dimensional Macroporous Quaternary Oxynitride Photoanodes for Photoelectrochemical Water Oxidation
- CeTiO <sub>2</sub> N oxynitride perovskite: paramagnetic <sup>14</sup> N MAS NMR without paramagnetic shifts
- Semi Transparent Three-Dimensional Macroporous Quaternary Oxynitride Photoanodes for Photoelectrochemical Water Oxidation
- CeTiO <sub>2</sub> N oxynitride perovskite: paramagnetic <sup>14</sup> N MAS NMR without paramagnetic shifts
- Semi Transparent Three-Dimensional Macroporous Quaternary Oxynitride Photoanodes for Photoelectrochemical Water Oxidation
- CeTiO <sub>2</sub> N oxynitride perovskite: paramagnetic <sup>14</sup> N MAS NMR without paramagnetic shifts
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