David A. Vermaas

Delft University of Technology — Netherlands

Engineering · Physical Sciences

44h-index8.7kcitations127works6.92yr avg
OpenAlex↗ORCID↗Google Scholar↗Lab page↗

Accepting Students?

No reports yet. Know if this professor is taking students?

Research Topics

Membrane-based Ion Separation Techniques(44), Advanced battery technologies research(34), Fuel Cells and Related Materials(29), CO2 Reduction Techniques and Catalysts(28), Membrane Separation Technologies(27)

Publications127 total

Activation of Prussian blue analogues: Temperature effects on structure, porosity, and open metal site accessibility
Microporous and Mesoporous Materials·2025Open Access
Water dissociation efficiencies control the viability of reverse-bias bipolar membranes for CO2 electrolysis
Nature Chemical Engineering·2025· 3 citedOpen Access
Flow-through electrodes enable order of magnitude higher partial current densities in aqueous CO2 electrolysis
Journal of CO2 Utilization·2025Open Access
Pressure-pulsed flow triples mass transport in aqueous CO2 electrolysis
Chem Catalysis·2025· 1 cited
H <sub>2</sub> O <sub>2</sub> Synthesis with Molecular Electrocatalysts Enables Substantial Current Densities in a Flow Cell Using Gas Diffusion Electrodes
ACS electrochemistry.·2025Open Access
Salt Ion Accumulation in Bipolar Membranes Limits the Maximum Rate of Neutralization
ACS Applied Materials & Interfaces·2025· 2 citedOpen Access
The Olympic challenge of reverse-bias bipolar membranes for CO2 electrolysis
2025Open Access
Visualization of bubble-induced mass transport at vertical hydrogen evolving electrodes
2025Open Access
Scaling and heating will drive low-temperature CO2 electrolysers to operate at higher temperatures
Nature Energy·2025· 21 cited
Imaging local pH in boundary layers at 3D electrodes in electrochemical flow systems
Chemical Engineering Journal·2025· 1 citedOpen Access
Flow-Through Electrodes Enable Order of Magnitude Higher Partial Current Densities in Aqueous Co2 Electrolysis
SSRN Electronic Journal·2025Open Access
Heating dictates the scalability of CO <sub>2</sub> electrolyzer types
EES Catalysis·2024· 17 citedOpen Access
Balancing pH and Pressure Allows Boosting Voltage and Power Density for a H<sub>2</sub>–I<sub>2</sub> Redox Flow Battery
ACS Applied Energy Materials·2024Open Access
Salt Formation and Flooding in MEA Cells for CO2 Electrolysis under Industry-Relevant Temperatures
2024
Assessing the Long-term Stability of PGM-free Anodes in CO2 Electrolysers Using a Reverse-bias BPM
2024
Author response for "Heating Dictates the Scalability of CO2 Electrolyzer Types"
2024
Nanofluidic ion-exchange membranes: Can their conductance compete with polymeric ion-exchange membranes?
Journal of Membrane Science·2024· 6 citedOpen Access
20-Fold Increased Limiting Currents in Oxygen Reduction with Cu-tmpa by Replacing Flow-By with Flow-Through Electrodes
ACS Sustainable Chemistry & Engineering·2024· 7 citedOpen Access
Bipolar membranes for intrinsically stable and scalable CO2 electrolysis
Nature Energy·2024· 68 citedOpen Access
Unifying the Conversation: Membrane Separation Performance in Energy, Water, and Industrial Applications
ACS ES&T Engineering·2024· 19 citedOpen Access
page 1 of 7Next →

Frequent Co-authors

Kitty Nijmeijer(15), Michel Saakes(14), Wilson A. Smith(12), Marijn A. Blommaert(6), J.A. Veerman(5), Rezvan Sharifian(4), Ibadillah A. Digdaya(3), P. H. Hermans(3), Lorenz M. Baumgartner(3), Christel I. Koopman(3), Bartek J. Trześniewski(2), Alessandro Longo(2), Marc T. M. Koper(2), Chengxiang Xiang(2), R. Martijn Wagterveld(2), J. J. Hérmans(2), A. Weidinger(2), Enver Güler(2), Damnearn Kunteng(2), Alexandros Daniilidis(2)