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2024年发表论文

(1) Li, Y.;# Mou, L.-H.;# Jiang, G.-D.; Li, Z.-Y.; *He, S.-G.; *Chen, H. Toward Designing Reactive Metal Clusters for Dinitrogen Activation: A Guideline Based on N2 Initial Adsorption, Ingor. Chem. 2024, 63, 10775-10785.

(2) Sun, C.-M.; Wei, G.-P.; *Yang, Y.; *Zhao, Y.-X. Thermal Reaction of NiAl3O6+ and Al4O6+ with Methane: Reactivity Enhanced by Doping, J. Phys. Chem. A 2024, 128, 1218-1225.

(3) Zhao, X.-G.,# *Zhao, Y.-X.,# *He, S.-G. Reactivity of Atomic Oxygen Radical Anions on Metal Oxide Clusters, ChemPlusChem 2024e202400085.

(4) Zhou, H.; Ruan, M.; Liu, Q.-Y.; Zhao, Y.-X.;Wang, R.-Y.; *Yang, Y.; *He, S.-G. Size-Dependent Reactivity of VnO+ (n =1-9) Clusters with Ethane. Phys. Chem. Chem. Phys. 2024, 26, 14186.

(5) Hu, Y.-Z.; Wei, G.-P.; Zhao, Y.-X.; Liu, Q.-Y.; *He, S.-G. Experimental Reactivity of (MoO3)NO (N = 1–21) Cluster Anions with C1-C4 Alkanes: A Simple Model to Predict the Reactivity with Methane. J. Phys. Chem. A 2024, 128, 5253-5259.

(6) Zhao, A.; Liu, Qing.-Y.; Li, Z.-Y.; *Li, X.-N.; *He, S.-G. Reverse Water-Gas Shift Catalyzed by RhnVO3,4-(n = 3-7) Cluster Anions under Variable Temperatures.  Dalton Trans. 202453, 8347-8355.

(7) Li, Q.; *Liu, Q.-Y.; *Zhao, Y.-X.; He, S.-G. Conversion of Methane at Room Temperature Mediated by the Ta-Ta σ-BondJACS Au 20244, 1824-1832.

(8) Zhao, X.-G.;# Yang, Q.;# Xu, Y.; Liu, Q.-Y.; Li, Z.-Y.; Liu, X.-X.; *Zhao, Y.-X.; *He, S.-G. Machine Learning for Experimental Reactivity of a Set of Metal Clusters toward C-H ActivationJ. Am. Chem. Soc 2024, 146, 12485-12495.

(9) Yang, Q.; Li, Z.-Y.; Rodríguez-Kessler, Peter*He, S.-G. Accelerated Global Optimization of Metal Cluster Structures via the Deep Neural Network Complemented with Transfer Learning and Genetic AlgorithmChinese J. Chem. Phys. 2024, 37, 321-329.

(10) Li, Z.-Y.; Liu, Q.-Y.; *He, S.-G. Spectroscopic Characterization of Thermal Methane Acitivation by Lewis-Acid-Base Pair in a Gas-Phase Pair in a Gas-Phase Metal Nitride Anion Ta2N3-. ChemPhysChem 2024, e202400116.

(11) Wang, S.-D.; Liu, Y.; *Ma, T.-M.; *Li, X.-N.; *He, S.-G. Factors Determining the Selectivity of NO Reduction Catalyzed by Copper-Vanadium Oxide Cluster Anions Cu2VO3-5-. ChemPhysChem 2024, e202400888.

(12) Sun, X.-Y.;# Wang, S.-D.;# Chen, J.-Y.; *Ma, T.-M.; *He, S.-G.; *Li, X.-N. Catalytic Conversion of NO and CO by Noble-Metal-Free Copper-Vanadium Oxide Cluster Anions CuVO3,4-. J. Phys. Chem. Lett. 2024, 15, 9043-9050.

(13) Wang, S.-D.; *Ma, T.-M.; *Li, X.-N.; He, S.-G. CO Oxidation Promoted by NO Adsorption on RhMn2O3- CLuster Anions. J. Phys. Chem. A 2024128, 738-746.

(14) *Chen, J.-J.; Wang, S.-D.; *Ding, X.-L.; He, S.-G. Role of H2O Adsorption in CO Oxidation over Cerium-Oxide Cluster Anions (CeO2)nO- (n = 1-4). J. Phys. Chem. Lett. 202415, 9078-9083.

(15) Liu, X.-X.; *Li, Z.-Y.; Liu, Q.-Y.; Zhao, X.-G.; Li, Q.; *He, S.-G. Reactivity of Polynuclear Niobium Oxynitride Cluster Anions Nb4N5-xOx- (= 0-5) toward N2. Chem. Eur. J. 2024e202402695.

(16) Chen, J.-Y.; Liu, Y.; Ma, T.-M.; *Li, Z.-Y.; *Li, X.-N. Selective Reduction of NO into N2 catalyzed by the RhM2O3- Clusters (M = Ta, V, and Al): Importance of the Triatomic Lewis Acid-Base-Acid Mδ+-Rhδ--Mδ+ Site. Ingor. Chem. 202463, 19179-19187.

(17) Li, Q.; Liu, X.-X.; Liu, Q.-Y.; *He, S.-G. Methane Activation by Closed-Shell Tantalum Sulfide Anions TaS3-Chinese J. Chem. Phys. 2024DOI: 10.1063/1674-0068/cjcp2407094.

(18) Zhao, X.-G.; *Zhao, Y.-X.; Liu, Q.-Y.; *He, S.-G. Dry Reforming of Methane to Syngas Mediated by Rhodium–Cobalt Oxide Cluster Anions Rh2CoO- J. Phys. Chem. Lett. 2024, 15, 9167−9174.

(19) Yang, Y.; Zhang, L.-J.; Wang, X.-L.; Wang, R.; *Zhao, Y.-X.; *He, S.-G.; *Zang, S.-Q. Consecutive C-C coupling of CH4 and CO2 Mediated by Heteronuclear Metal Cations CuTa+. J. Am. Chem. Soc. 2024, accepted.