「国家杰青」朱广山领衔！东北师范大学元野最新Nature Water | 三角形结合口袋高效提铀酰于天然水！
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TL;DR - A Nature Water study introduces porous polymers with triangular metal–porphyrin binding pockets that selectively capture uranyl complexes from natural waters. The design could improve uranium recovery for sustainable nuclear energy and selective radionuclide separation.
- Achieved over 96% uranium removal within 1,500 minutes through micropore confinement and multidentate coordination.
- Reached adsorption capacities of 33.5 mg/g in seawater and 79.8 mg/g in salt-lake brine after 24 days.
- Geometry-matched, positively charged pockets target carbonate- and calcium-bound uranyl species that conventional adsorbents struggle to capture.
- The reusable materials also performed in lake water and may support electrochemical and precision molecular-separation applications.
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「国家杰青」朱广山领衔！东北师范大学元野最新Nature Water | 三角形结合口袋高效提铀酰于天然水！
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TL;DR - A Nature Water study introduces porous polymers with triangular metal–porphyrin binding pockets that selectively capture uranyl complexes from natural waters. The design could improve uranium recovery for sustainable nuclear energy and selective radionuclide separation.
- Achieved over 96% uranium removal within 1,500 minutes through micropore confinement and multidentate coordination.
- Reached adsorption capacities of 33.5 mg/g in seawater and 79.8 mg/g in salt-lake brine after 24 days.
- Geometry-matched, positively charged pockets target carbonate- and calcium-bound uranyl species that conventional adsorbents struggle to capture.
- The reusable materials also performed in lake water and may support electrochemical and precision molecular-separation applications.