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Dalian Institute of Chemical Physics team uses electrolyser waste heat to co-produce hydrogen and fresh water from seawater

Energy

Dalian Institute of Chemical Physics team uses electrolyser waste heat to co-produce hydrogen and fresh water from seawater

Source: https://www.nature.com/articles/s41560-026-02130-6 At a glance Seawater provides an abundant water source for green hydrogen production, but its direct use in an electrolyser introduces chloride chemistry, calcium and magnesium deposits, corrosion and membrane contamination. Desalinating seawater before electrolysis protects the electrolyser, although conventional

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Macau University of Science and Technology and collaborators use dynamic Zn-site asymmetry to steer urea and peroxide electrosynthesis

Chemistry

Macau University of Science and Technology and collaborators use dynamic Zn-site asymmetry to steer urea and peroxide electrosynthesis

Source: https://onlinelibrary.wiley.com/doi/abs/10.1002/anie.3649572 At a glance Single-atom catalysts offer well-defined active sites, and their coordination environments provide a way to regulate how reaction intermediates bind. Researchers from Macau University of Science and Technology, the Hefei Institutes of Physical Science of

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Southern University of Science and Technology team couples minerals and electrochemistry for membrane-free urine valorization

Chemistry

Southern University of Science and Technology team couples minerals and electrochemistry for membrane-free urine valorization

Source: https://www.nature.com/articles/s41467-026-77732-5 At a glance Human urine is a concentrated source of nitrogen and phosphorus, but its composition begins changing soon after collection. Urease converts urea into ammonia/ammonium and bicarbonate, raising pH and promoting uncontrolled mineral precipitation. This process can lead

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Institute of Physics and Dalian Institute of Chemical Physics team separates space and electric-field effects in photoelectrochemical water splitting

Institute of Physics and Dalian Institute of Chemical Physics team separates space and electric-field effects in photoelectrochemical water splitting

Source: https://www.nature.com/articles/s41467-026-77786-5 At a glance Photoelectrochemical water splitting uses semiconductor electrodes to turn light energy into chemical fuel. Its charges must remain separated long enough to reach different reaction sites. Near the semiconductor-electrolyte interface, band bending produces a space-charge layer

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