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ElectroEnergy is a research group located in the Institute of Chemistry, University of Campinas, Brazil, working on cutting-edge topics in Electrochemistry and Energy Conversion.

led by Prof. Raphael Nagao

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Papers

Keeping track our publications in high impact journals

Team

These are the people who make the magic happen

Media

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Highlights

Find out our latest achievements

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JACS Au ECAB

Prof. Raphael Nagao was selected to be member of the 2024 JACS Au ECAB

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ACIESP

Prof. Raphael Nagao was selected to be an affiliate member of ACIESP

ElectroEnergy

Pushing the limits of Electrocatalysis since 2016

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We have focused on answering fundamental questions and how to convert this knowledge into novel technologies. Our main goal is: (a) to elucidate mechanisms of complex electrochemical reactions, (b) to correlate the electrified interface in atomic level with thermodynamic and kinetic properties, (c) to develop efficient materials as nanostructured electrocatalysts for storage and energy conversion reactions. 

If you are interested in our research, contact us! We have open positions for postdocs, graduate and undergraduate students - Feel free to send an email to Prof. Raphael Nagao.

On going research lines

ElectroEnergy has focus on these three main topics in recent years

Green Urea

By in ElectroEnergy Research

Green urea is produced by coupling carbon dioxide and nitrate using renewable electricity. This sustainable method forms C–N bonds to generate urea under ambient conditions. It eliminates the need for fossil fuels and high-pressure processes typical of conventional urea synthesis. The approach enables carbon and nitrogen recycling from waste streams. Green urea offers a cleaner alternative for fertilizer production

Green Ammonia

By in ElectroEnergy Research
Green ammonia is produced via electrochemical nitrate reduction using renewable electricity. In this process, nitrate ions are converted into ammonia at the cathode of an electrolyzer. The reaction occurs under mild conditions and avoids carbon dioxide emissions, offering a sustainable alternative to the traditional Haber-Bosch process. This method also helps remediate nitrate-contaminated wastewater

Green Hydrogen

By in ElectroEnergy Research

Green hydrogen is produced through water electrolysis powered by renewable energy sources, such as solar or wind. This process splits water into hydrogen and oxygen without emitting carbon dioxide. Unlike grey or blue hydrogen, green hydrogen is entirely clean and sustainable. It can be stored and used as a fuel or feedstock in various sectors. Green hydrogen plays a key role in decarbonizing industry and energy systems