Electrochemical CO2 capture technologies are gaining attention due to their flexibility, their
ability to address decentralized emissions (eg, ocean and atmosphere) and their fit in an …

Carbon capture and storage (CCS) is essential if global warming mitigation scenarios are to
be met. However, today's maturing thermochemical capture technologies have exceedingly …

Electrochemical carbon-capture technologies, with renewable electricity as the energy input,
are promising for carbon management but still suffer from low capture rates, oxygen …

Bipolar membranes (BPMs) are a special class of ion-exchange membranes constituted by
a cation-and an anion-exchange layer, allowing the generation of protons and hydroxide …

The build-up of carbon dioxide in the atmosphere is one of the grand challenges facing
society. Addressing this challenge by removing CO2 from the atmosphere or mitigating point …

Carbon capture and concentration of low partial pressure CO2 in air and flue gas is a key
step in carbon abatement strategies. Traditional CO2 capture methods employ temperature …

Electrochemical carbon capture and concentration (eCCC) offers a promising alternative to
thermochemical processes as it circumvents the limitations of temperature-driven capture …

This article provides an up-to-date perspective on the use of anion-exchange membranes in
fuel cells, electrolysers, redox flow batteries, reverse electrodialysis cells, and …

Carbon dioxide (CO2) must be removed from the atmosphere to mitigate the negative effects
of climate change. However, the most scalable methods for removing CO2 from the air …

A high pressure semicontinuous batch electrolyzer is used to convert CO2 to formic
acid/formate on a tin-based cathode using bipolar membranes (BPMs) and cation exchange …