Materials Science

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Photorealistic close-up of a POMbrane crystalline membrane with 1nm pores for molecular filtration
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Nature-inspired “POMbranes” use uniform 1-nanometer pores for ultra-selective molecular filtration

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Researchers from India and Singapore report a crystalline membrane made from polyoxometalate clusters whose intrinsic openings are about 1 nanometer wide, enabling unusually sharp molecular separations that could help lower energy use in some industrial purification and water-reuse steps.

Physicists at the University at Buffalo have proposed a quantum sensing technique that could identify altermagnets using tiny defects in diamond. The method would help confirm the properties of these recently theorized materials. It was detailed in a paper published in Physical Review Letters.

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Researchers at the University of Colorado Boulder have developed a material made from staple-shaped particles that can switch between being strong and flexible or falling apart on command.

Scientists at California Polytechnic State University have discovered new forms of quantum matter by varying magnetic fields over time. The breakthrough, detailed in Physical Review B, shows that time-dependent control can produce stable quantum states without static equivalents. This could advance quantum computing by making systems more resistant to errors.

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Researchers at EPFL have developed Synthegy, an AI framework that lets chemists guide complex molecule synthesis using simple language instructions. The system combines traditional algorithms with large language models to evaluate and rank reaction pathways. It also aids in understanding reaction mechanisms, potentially speeding up drug discovery.

Scientists at Chiba University in Japan have developed a new carbon material called viciazites that captures CO2 more efficiently and releases it at low temperatures. The material uses precisely arranged nitrogen groups to cut energy costs, potentially running on industrial waste heat. This breakthrough could make large-scale carbon capture more affordable.

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Scientists at the Fritz Haber Institute of the Max Planck Society and international collaborators say they have reconstructed a real-time “movie” of atoms moving for up to a picosecond before an electron-transfer-mediated decay (ETMD) event, showing that nuclear motion and geometry can strongly influence when the decay occurs and what it produces.

 

 

 

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