| 1 |
Surface modification of TiO2 with copper clusters for band gap narrowing
Sharma PK, Cortes MALRM, Hamilton JWJ, Han YS, Byrne JA, Nolan M
Catalysis Today, 321, 9, 2019 |
| 2 |
Features of the formation of nanoparticles based on copper in thin-layer systems
Ragachev AV, Jiang XH, Liu XH, Yarmolenko MA, Rogachev AA, Gorbachev DL, Liu ZB
Applied Surface Science, 317, 449, 2014 |
| 3 |
Indications for metal-support interactions: The case of CO2 adsorption on Cu/ZnO(0001)
Wang J, Funk S, Burghaus U
Catalysis Letters, 103(3-4), 219, 2005 |
| 4 |
Spectroscopic observation and ab initio simulation of copper clusters in zeolites
Petranovskii V, Gurin V, Machorro R
Catalysis Today, 107-08, 892, 2005 |
| 5 |
Cu cluster adhesion enhancement on the modified Dow Cyclotene surface through low energy N-2(+) beam irradiation at grazing angles
Yang DQ, Sacher E
Applied Surface Science, 207(1-4), 1, 2003 |
| 6 |
Energy-resolved collision-induced dissociation of Cu-n(+) (n=2-9): Stability and fragmentation pathways
Ingolfsson O, Busolt U, Sugawara K
Journal of Chemical Physics, 112(10), 4613, 2000 |
| 7 |
(THF)(8)Ln(8)E(6)(EPh)(12) cluster reactivity: Systematic control of Ln, E, EPh, and neutral donor ligands
Freedman D, Emge TJ, Brennan JG
Inorganic Chemistry, 38(20), 4400, 1999 |
| 8 |
Vanadium clusters: Reactivity with CO, NO, O-2, D-2, and N-2
Holmgren L, Rosen A
Journal of Chemical Physics, 110(5), 2629, 1999 |
| 9 |
First principles study of adsorbed Cu-n (n=1-4) microclusters on MgO(100) : Structural and electronic properties
Musolino V, Selloni A, Car R
Journal of Chemical Physics, 108(12), 5044, 1998 |
| 10 |
Structural and electronic properties of small Cu-n clusters using generalized-gradient approximations within density functional theory
Massobrio C, Pasquarello A, Dal Corso A
Journal of Chemical Physics, 109(16), 6626, 1998 |
