The Hong Kong Polytechnic University (PolyU) has developed an advanced carbon dioxide (CO2) electroreduction system to efficiently reduce carbon emissions and work towards carbon neutrality objectives. This breakthrough, recently published in Nature Energy and awarded a Gold Medal at the 48th International Exhibition of Inventions Geneva, focuses on converting CO2 into ethylene using an electrocatalytic approach. Led by Prof. Daniel Lau, the research team designed the APMA system, utilizing an alkali-metal-free cell stack with an anion-exchange membrane (AEM) and a proton-exchange membrane (PEM). This system demonstrated a high ethylene specificity of 50%, operating for over 1,000 hours at an industrial-level current of 10A. The innovation also addresses challenges like electrolyte loss and hydrogen formation, making it a promising step towards sustainable and stable ethylene production. The research, in collaboration with the University of Oxford, the National Synchrotron Radiation Research Centre of Taiwan, and Jiangsu University, aims to further enhance product selectivity and explore industry partnerships for green ethylene production, contributing to carbon emission reduction and the pursuit of carbon neutrality goals.
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Kudos to PolyU for contributing to the development of more eco-friendly solutions in the fight against climate change.
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This is a promising step towards reducing carbon emissions and combating climate change.💚💚
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Excellent 💡 idea
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Work of brilliance
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We can surely achieve anything we strive to for the sake of our planet
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All efforts towards reducing carbon footprint and carbon neutralisation are highly composed commendable
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@johnte_ndeto yes the small and huge efforts
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The Hong Kong Polytechnic University's development of an advanced carbon dioxide (CO2) electroreduction system represents a significant breakthrough in the quest for carbon neutrality. The system efficiently converts CO2 into ethylene using an electrocatalytic approach, showcasing a high ethylene specificity of 50% and operating for over 1,000 hours at an industrial-level current of 10A. Led by Prof. Daniel Lau, the research team's APMA system addresses challenges such as electrolyte loss and hydrogen formation, promising sustainable and stable ethylene production.
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What an honourable project
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@esther_wanjiku_785 so commendable of them
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@esther_wanjiku_785 Truly amazing
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This is a great project to aid in reducing carbon footprint.
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@joseph_githinji Agree! More companies should invest in such projects.