翁教授做了全imToken钱包下载面的考察！

enabling the surface-phosphorylated CeO 2 -supported monolithic catalyst to exhibit both expected activity and stability for over 68 days during a pilot test，imToken钱包， catalyzing the destruction of a complex chlorinated volatile organic compound industrial off-gas. 有幸参与， we present the computational discovery and experimental demonstration of a highly active surface-phosphorylated ceria catalyst that exhibits robust chlorine tolerance for catalysis. Ab initio molecular dynamics (AIMD) calculations and in situ near-ambient pressure X-ray photoelectron spectroscopy ( in situ NAP-XPS) identified a predominantly HPO 4 active structure on CeO 2 (110) and CeO 2 (111) facets at room temperature. Importantly，翁教授做了全面的考察！ ，很早之前发现H Hopping在氧化铈用于CVOCs催化燃烧时可能有所作用， https://doi.org/10.1021/acs.est.3c06878 Surface-Phosphorylated Ceria for Chlorine-Tolerance Catalysis | Environmental Science Technology (acs.org) An improved fundamental understanding of active site structures can unlock opportunities for catalysis from conceptual design to industrial practice. Herein， further elevating the temperature led to a unique hydrogen (H) atom hopping between coordinatively unsaturated oxygen and the adjacent P═O group of HPO 4 . Such a mobile H on the catalyst surface can effectively quench the chlorine radicals (Cl ) via an orientated reaction analogous to hydrogen atom transfer (HAT)，。