Chinese scientists make petrol building blocks from CO2, water, and sunlight

Researchers in China have developed a solar-powered process inspired by photosynthesis to convert carbon dioxide and water into chemicals for petrol production. The method uses a new material that stores electrical energy to drive reactions efficiently. This breakthrough could provide fuels for sectors like aviation and shipping.

Chinese scientists have developed a plant-inspired method to convert carbon dioxide and water into valuable chemicals, such as the building blocks for petrol, by using solar energy. The team, from the Chinese Academy of Sciences and the Hong Kong University of Science and Technology, said they had developed a material able to store small amounts of electrical energy to help efficiently drive chemical reactions.

When paired with catalysts that converted carbon dioxide into various chemicals, it enabled the solar-driven production of carbon monoxide. This could be further converted into fuel, offering a possible alternative for hard-to-electrify sectors such as aviation and shipping.

“This work establishes a bioinspired charge reservoir strategy for efficient carbon dioxide photoreduction, providing a universal approach to solar fuel production,” the team wrote in a paper published in the peer-reviewed journal Nature Communications last week.

The innovation mimics photosynthesis in plants, using sunlight to directly produce fuel and potentially reducing reliance on fossil fuels. The research highlights the potential of solar energy in sustainable chemistry.

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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.

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An international team including researchers from Cornell University, the Boyce Thompson Institute, the University of Edinburgh, and others has uncovered how hornwort plants use a modified protein, RbcS-STAR, to cluster the key photosynthetic enzyme Rubisco into pyrenoid-like compartments. This mechanism boosts carbon capture and could enhance crop yields by up to 60 percent while reducing needs for water and fertilizers.

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Researchers at the University of Cambridge have observed electrons crossing boundaries in solar materials in just 18 femtoseconds, driven by molecular vibrations. This discovery challenges traditional theories on charge transfer in solar energy systems. The findings suggest new ways to design more efficient light-harvesting technologies.

 

 

 

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