Two researchers delving into France’s Lorraine mining basin with the intent of locating fossil fuels stumbled upon something far more revolutionary. What lay beneath the earth’s surface in northeastern France was a treasure trove of white hydrogen, a naturally occurring and renewable form of hydrogen, often referred to as green hydrogen.
Hydrogen fuel cells, long considered a beacon of sustainable energy, have taken a significant step forward, thanks to pioneering research by the Ulsan National Institute of Science and Technology (UNIST).
A recent study commissioned by the eco-energy cooperative Green Planet Energy, conducted by the Reiner Lemoine Institute, explores the critical role of flexible green hydrogen production in achieving climate goals and ensuring a low-carbon future.
A study by the Norddeutscher Reallabor (NRL) highlights the pivotal role of green hydrogen in Germany’s industrial decarbonization efforts. The study estimates the country’s future demand for green hydrogen to reach at least 211 TWh annually as industries transition to climate-friendly technologies.
MIT engineers are on the verge of a clean energy breakthrough that could revolutionize hydrogen production and help eliminate the dependence on fossil fuels.
Texas A&M University scientists are exploring a more efficient path for green hydrogen production, tapping into the potential of electrocatalysts to revolutionize the hydrogen evolution reaction.
A team of scientists from Latvia, in collaboration with experts from Romania, Spain, and Germany, is pioneering an innovative solution that could revolutionize hydrogen production: artificial intelligence.
Hydrogen, often hailed as the future of clean energy, has taken a significant step closer to widespread adoption with a groundbreaking solar cell innovation. Researchers at the University of Tübingen have unveiled a new type of solar cell that boasts remarkable efficiency, promising decentralized and cost-effective green hydrogen production on an industrial scale.
Stars, like our own Sun, produce energy through nuclear fusion. In this process, two light atomic nuclei combine to form one or more heavier atomic nuclei and additional sub-atomic particles, such as neutrons.
Fraunhofer UMSICHT researchers are developing a new process called methanol-assisted water electrolysis (MAWE) that could revolutionize the way hydrogen is produced.
