David Vermaas

Associate professor

Delft University of Technology

Netherlands

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About

David Vermaas is an Associate Professor at Technische Universiteit Delft in the Netherlands. His research primarily focuses on electrochemical processes, specifically in the areas of bipolar membranes, CO2 electrolysis, and ion-exchange membranes. Recent articles authored by Professor Vermaas include studies on salt ion accumulation, pH and pressure balancing in redox flow batteries, and the scalability of different types of CO2 electrolyzers.

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Collaborators (7)

Ferdinand C. Grozema

Delft University of Technology

NETHERLANDS

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Wolter Jager

Assistant Professor

Delft University of Technology

NETHERLANDS

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ALESSANDRO TAMBURINI

Assistant Professor

Università degli Studi di Palermo

ITALY

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Freek Kapteijn

NETHERLANDS

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Kostadin Petrov

Delft University of Technology

NETHERLANDS

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Jin Soo Kang

Assistant Professor

Seoul National University

SOUTH KOREA

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Johan Padding

Prof. at Delft University of Technology

Delft University of Technology

NETHERLANDS

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David Vermaas

Research Interests

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About

Articles (22)

Salt Ion Accumulation in Bipolar Membranes Limits the Maximum Rate of Neutralization

Scaling and heating will drive low-temperature CO2 electrolysers to operate at higher temperatures

Balancing pH and Pressure Allows Boosting Voltage and Power Density for a H2–I2 Redox Flow Battery

Heating dictates the scalability of CO2 electrolyzer types

Nanofluidic ion-exchange membranes: Can their conductance compete with polymeric ion-exchange membranes?

20-Fold Increased Limiting Currents in Oxygen Reduction with Cu-tmpa by Replacing Flow-By with Flow-Through Electrodes

Bipolar membranes for intrinsically stable and scalable CO2 electrolysis

Unifying the Conversation: Membrane Separation Performance in Energy, Water, and Industrial Applications

Gas bubble removal from a zero-gap alkaline electrolyser with a pressure swing and why foam electrodes might not be suitable at high current densities

Practical potential of suspension electrodes for enhanced limiting currents in electrochemical CO2 reduction

Direct Imaging of Local pH Reveals Bubble-Induced Mixing in a CO2 Electrolyzer

Quinolinium-Based Fluorescent Probes for Dynamic pH Monitoring in Aqueous Media at High pH Using Fluorescence Lifetime Imaging

Inhomogeneities in the Catholyte Channel Limit the Upscaling of CO2 Flow Electrolysers

Fouling management in oceanic carbon capture via in-situ electrochemical bipolar membrane electrodialysis

Carbon monoxide separation: past, present and future

Visualizing pH and Mass Transport at Hydrogen Evolving Electrodes with Fluorescence Lifetime Microscopy

Design criteria for selective nanofluidic ion-exchange membranes

When Flooding Is Not Catastrophic─Woven Gas Diffusion Electrodes Enable Stable CO2 Electrolysis

Feasibility of Producing Electricity, Hydrogen, and Chlorine via Reverse Electrodialysis

Resistance Breakdown of a Membraneless Hydrogen–Bromine Redox Flow Battery

Electrochemical methods for carbon dioxide separations

Using Membranes with Internal Microchannels to Prevent Drying-out during CO2 Electrolysis

Collaborators (7)

Ferdinand C. Grozema

Wolter Jager

ALESSANDRO TAMBURINI

Freek Kapteijn

Kostadin Petrov

Jin Soo Kang

Johan Padding

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