Scientists adapted a method that can produce double the amount of hydrogen when splitting water molecules with electricity.
When you purchase through links on our site, we may earn an affiliate commission. Here’s how it works.
Scientists have developed a new technique that doubles the amount of hydrogen produced when splitting water molecules with electricity. The method works by adding a simple organic molecule and a modified catalyst to the reactor.
The adapted method lowers energy costs by up to 40% and may offer a promising pathway for efficient and scalable hydrogen production, the researchers said in a new study published Dec. 1 in the Chemical Engineering Journal.
>> In Other News: Darling Ingredients Announces Sale of Approximately $50 Million in Production Tax Credits
“Hydrogen is one of the most in demand chemicals,” study co-author Hamed Heidarpour, a doctoral student at McGill University in Montreal, Canada, told Live Science. Hydrogen is used for ammonia production to produce fertilizers, in fuel cells to generate electrical energy, or burned to directly produce energy, Heidarpour said.
The main way of producing hydrogen is through steam reforming, which involves reacting water with natural gas at high temperatures and pressures to separate water's oxygen and hydrogen atoms. But these conditions mean the process is energy intensive and requires burning large amounts of fossil fuels.
Using electricity to split water into hydrogen and oxygen molecules — a method known as electrolysis — could potentially offer a way to create hydrogen with no direct carbon dioxide emissions.
This works by connecting two metal plates known as electrodes to a direct current supply and submerging the ends of the plates into water. Applying electricity to the circuit generates hydrogen at the negative electrode (anode) and oxygen at the positive one (cathode).
However, electrolysis of water is currently inefficient, expensive and uses a lot of electricity, which often comes from non-renewable sources. The main inefficiency is from producing oxygen at the anode, Heidarpour explained.
Follow the money flow of climate, technology, and energy investments to uncover new opportunities and jobs.
Inside This Issue 🍁 Canada's Natural Hydrogen Bet Just Got A Lot Bigger 💰 Carbon Pricing Now Covers 63% Of Global GDP As Emissions Trading Expands 🏛️ Republicans Introduce American Energy Dominanc...
Inside This Issue ⚡ Innio and Net Zero Innovation Hub Deliver World-First 3 MW Demonstration of 100% Hydrogen Backup Power for Data Centers 🌳 Chestnut Carbon Doubles Footprint in Southeast U.S. to...
Inside This Issue 🛢️ Kansas Gets Its First CO2 Storage Well, PureField Shows How 🤝 FPH2 Expands California Renewable Hydrogen Supply Partnerships To Support Public Fleets, Data Infrastructure, And...
Aviva Investors Partners With Climate Impact Partners To Invest In Colombian Afforestation Project
(London) – Aviva Investors, the global asset management business of Aviva plc, announces it has funded a large-scale afforestation and restoration project in Colombia, partnering with Climate Impac...
The close scales the project to 60,000 hectares of funded restoration, positioning Spekboom amongst the world's largest projects. The close combines streaming capital from a syndicate of institutio...
WASHINGTON, April 27, 2026 /PRNewswire/ -- The Ammonia Energy Association (AEA) has partnered with MiQ to launch the AEA Ammonia Certification System, a global certification system designed to faci...
Verde And Isometric Aim To Scale High Integrity Carbon Credits Through Infrastructure
ST. LOUIS, April 27, 2026 /PRNewswire/ -- Verde Resources Inc. (OTCQB: VRDR ) ("Verde"), an emerging leader in sustainable infrastructure products and technologies, today announced a strategic coll...
Follow the money flow of climate, technology, and energy investments to uncover new opportunities and jobs.