Key Highlights
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A new type of bipolar membrane can create an extremely high pH environment right at the surface of a catalyst. This breakthrough allows for the efficient conversion of carbon dioxide into liquid fuels like ethanol with high selectivity and long-term stability, paving the way for scalable production of carbon-neutral fuels.
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Scientists have found that the hydrogen-bond networks at the interface between a catalyst and a liquid are not static but can be actively tuned to improve chemical reactions. By precisely controlling these networks, researchers can dramatically speed up proton transfer and steer reactions toward desired products, opening a new path for designing better catalysts for clean energy.
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Adding a common, green material called hydroxyethyl cellulose to the electrolyte of a zinc-ion battery creates a protective layer on the metal surface. This layer prevents unwanted side reactions and promotes uniform zinc deposition, leading to a battery that is far more stable, long-lasting, and efficient for grid-scale energy storage.
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Researchers used satellite radar data to map ground deformation on a volcanic island in Japan over six years. Understanding how the ground moves before and after volcanic activity is crucial for assessing geothermal energy potential and for monitoring volcanic hazards near potential energy sites.
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