The awareness of society in terms of sustainability and the fragility of ecosystems and our environment has pushed governments to pass legislation imposing stricter product requirements on industry. Companies are therefore looking for alternative feedstocks with less impact on the environment. This implies that the origin of these feedstocks has to be renewable or they […]
CLUE aims to develop the next generation CO2 electrolyzers for sustainable production of ethylene with reduced carbon footprint by designing novel, selective and highly robust electrocatalysts using an innovative approach based on Cluster Beam Deposition (CBD) technology. For electrochemical conversion of CO2 to ethylene, stimulating results have recently been obtained mainly on copper-based catalysts, yielding
Clusters for CO2 electrolyzers to Ethylene (CLUE) Meer lezen »
The negative impact of CO2 on climate change makes the decrease of anthropogenic CO2 emissions one of the biggest scientific challenges our current generation faces. One possible solution is the direct photo- or electrochemical conversion of CO2 to highly value-added products such as methanol, using merely H2O as proton source and renewable electricity as driving
Through femtosecond pulsed laser micromachining a wide variety of materials such as ceramics (e.g. glass), hard metals (e.g. Hastelloy), and polymers can be processed with microscale resolution, offering innovation and beyond state-of-the-art research opportunities. To name a few, the planned research infrastructure would allow to tune the catalytic properties of surfaces, to enhance flow distribution,
Water electrolysis has since long been considered as a sustainable and scalable technology to generate green hydrogen, which is a promising candidate to store and liberate energy from. In order to increase the overall energy efficiency of this process, it is important to understand and improve the sluggish oxygen evolution reaction (OER) by developing more
One of the greatest challenges faced by our current generation is lowering the concentration of greenhouse gasses in the atmosphere and reducing anthropogenic CO2 emissions. The electrochemical CO2 reduction (ECR) provides a solution to this problem by utilizing CO2 in combination with renewable energy and convert it to valuable chemicals (here formic acid, FA). However,
Electrochemical conversion of CO2 to formic acid at elevated temperatures Meer lezen »
While capture of CO2 is crucial to reduce CO2-emissions, the high cost and technological limitations of available technologies restrict their successful and general industrial deployment in the CO2 capture and utilization (CCU) context. Moreover, given the limited potential of carbon utilization (e.g. the use of CO2 for the production methanol and urea has a sequestration
Intensification of CO2 capture processes (CAPTIN-2) Meer lezen »
BE-HyFE stands for Belgian Hydrogen Fundamental Expertise and reads like ‘beehive’, which is what we want to offer to our research community: an organized structure in which our researchers all work for a common goal, gathering expertise (instead of honey!), cross-pollinate one another with knowledge and – next to the focus on their own research
BE-HyFE Belgian Hydrogen Fundamental Expertise Meer lezen »
The project aims at developing innovative continuous flow technologies with as prospective industrial implementation. Flow technology is especially useful for continuous processes and can be implemented at different levels going from efficient and economic screening of process conditions to process intensification
The objective of the project is to combine photo- and electrochemistry into a photo-electrocatalytic approach to convert CO2 into methanol.
