University develops catalyst for low-temperature hydrogen production

Researchers at the University of Birmingham have created a perovskite catalyst that produces hydrogen from water at significantly reduced temperatures. The advance could allow industrial waste heat to generate clean fuel more affordably than current methods.

A team led by Professor Yulong Ding developed the BNCF perovskite material, which splits water into hydrogen at 150-500 degrees Celsius. Regeneration of the catalyst occurs at 700-1000 degrees Celsius, about 500 degrees lower than existing thermochemical systems. The findings, published in the International Journal of Hydrogen Energy, show the material maintained stability across 10 production cycles. Preliminary economic analysis indicates the process could cost less than green hydrogen from electrolysis or blue hydrogen from methane with carbon capture. The University of Birmingham collaborated with the University of Science and Technology Beijing on the project. University of Birmingham Enterprise has filed a patent and is seeking partners for commercialization in the UK and Europe. Professor Ding noted that the lower temperatures could enable hydrogen production near renewable energy sites and industrial facilities with abundant waste heat, reducing needs for storage and transport infrastructure.

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ETH Zurich scientists with single-atom indium catalyst converting CO2 to methanol in a high-tech lab reactor, sustainable energy theme.
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Scientists develop single-atom catalyst for CO2-to-methanol conversion

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Researchers at ETH Zurich have engineered a catalyst using isolated indium atoms on hafnium oxide to convert CO2 and hydrogen into methanol more efficiently than previous methods. This single-atom design maximizes metal use and enables clearer study of reaction mechanisms. The breakthrough could support sustainable chemical production if powered by renewables.

Researchers at the University of Adelaide have devised a solar-powered process to transform plastic waste into clean hydrogen fuel and other chemicals. The technique, known as solar-driven photoreforming, uses sunlight and photocatalysts to break down plastics at low temperatures. Early experiments show promising hydrogen yields and system stability.

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A team at the University of Hong Kong has created a new stainless steel alloy that resists corrosion in seawater electrolysis. The material could replace expensive titanium components in hydrogen production systems.

China's Ministry of Industry and Information Technology and other agencies issued a joint circular aiming for 100,000 fuel cell vehicles nationwide by 2030, double the 2025 level. End-user hydrogen prices are targeted to fall below 25 yuan (about $3.62) per kg by then, and around 15 yuan in advantaged regions.

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Werner Ponikwar, CEO of Thyssenkrupp Nucera, calls in a guest commentary for more commitment to electrolysis technologies. Diversified energy imports are insufficient to reduce dependency. Electrolysis links renewable electricity to industrial value creation and produces hydrogen as a storable energy carrier.

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