18459-37-5Relevant articles and documents
Charge transfer cross sections for Hg+, Xe+, and Cs+ in collision with various metals and carbon
Rutherford, J.A.,Vroom, D.A.
, p. 434 - 441 (1981)
Cross sections for charge transfer between Hg+, Xe+, and Cs+ and the atomic species Fe, Mo, Al, Ti, Ta, and C have been measured in the ion energy range from 1 to 5000 eV.In general, the cross sections for charge transfer
Cyanometalate cages with exchangeable terminal ligands
Boyer, Julie L.,Yao, Haijun,Kuhlman, Matthew L.,Rauchfuss, Thomas B.,Wilson, Scott
, p. 2721 - 2728 (2008/02/10)
The coordination chemistry of the unusual metallo-ligand Cs?[CpCo(CN)3]4[Cp*Ru]3 (Cs?Co4Ru3) is described with attention to the behavior of the ligand itself, its binding to Lewis-acidic metal cations, and its ability to stabilize catalytically relevant Ru-PPh3 fragments. A series of tests demonstrate that the rim [CpCo(CN)3] - groups in Cs?Co4Ru3 are exchangeable. Upon treatment with [(MeC5H4)Co(CN)3] - (Co′) Cs?Co4Ru3 undergoes vertex exchange to give Cs?Co4-xCo′xRu3. Similarly the cage is degraded by CO. Most convincing, Cs?Co 4Ru3 reacts with PhNH3OTf to precipitate the polymer PhNH3CpCo(CN)3 and form the molecular box [Cs?Co4Ru4]+. Treatment of Cs?Co 4Ru3 with [M(NCMe)x]PF6 (M = Cu, Ag) gave the Lewis acidic cages {Cs?[CpCo(CN)3] 4[Cp*Ru]3M(NCMe)}PF6, which reacted with tertiary phosphane ligands to give adducts [Cs?Co4Ru 3M(PPh3)]PF6. Lewis acidic octahedral vertices were installed using Fe, Ni, and Ru reagents. The boxes [Cs?Co 4Ru3M(NCMe)3]2+ (M = Ni, Fe) formed readily from the reaction Cs?Co4Ru3 with [Ni(NCMe)6](BF4)2 and [Fe(NCMe) 6]-(PF6)2. Displacement of the MeCN ligands gives [Cs?Co4Ru3Ni(9-ane-S3)](BF4) 2. A series of boxes were prepared by the reaction of Cs?Co 4Ru3 and RuCl2(PPh3)3, RuHCl(PPh3)3, and [(C6H6)Ru(NCMe) 3](PF6)2. The derivative of the hydride, [Cs?Co4Ru3Ru(NCMe)(PPh3) 2](PF6)2, was characterized crystallographically. Wiley-VCH Verlag GmbH & Co. KGaA, 2007.
Collisional dissociation and chemical relaxation of alkali halide molecules: 2000-4200 K
Milstein, Richard,Berry, R. Stephen
, p. 6025 - 6037 (2007/10/02)
Shock-induced dissociation and the subsequent chemical relaxation processes of diatomic alkali halide molecules have been studied by time-resolved absorption spectrometry of alkali atoms, halide ions, and alkali halide molecules.The salts studied in detai
