766540-44-7Relevant articles and documents
Unusual coordination mode of tetradentate Schiff base cobalt(iii) complexes
Cyriac, Anish,Jeon, Jong Yeob,Varghese, Jobi Kodiyan,Park, Ji Hae,Choi, Soo Young,Chung, Young Keun,Lee, Bun Yeoul
, p. 1444 - 1447 (2012)
Contrary to the stereotype, Jacobsen's catalyst, chiral (salcy)Co(iii)OAc adopts an unusual binding mode. The tetradentate {ONNO} ligand does not form a square plane but wraps cobalt in a cis-β fashion while acetate is chelating.
Bis-(3,5-dimethyl salicylidine)-ethylenediamine as a Gravimetric Reagent for Cu(II)
Kumar, Anil,Kumar, Bijay,Yadav, Ashok Kumar
, p. 980 - 984 (2020/11/25)
Complex of Cu(II) with bis-(3,5-dimethyl salicylidine)-ethylenediamine was synthesized and characterized by elemental analysis, melting point determination, conductivity measurement, magnetic and spectroscopic studies. Molecular formula of the newly prepa
Highly Active Salen-Based Aluminum Catalyst for the Coupling of Carbon Dioxide with Epoxides at Ambient Temperature
Woo, Won Hee,Hyun, Kyunglim,Kim, Yoseph,Ryu, Ji Yeon,Lee, Junseong,Kim, Min,Park, Myung Hwan,Kim, Youngjo
, p. 5372 - 5378 (2017/12/08)
Aluminum complex [(naph)salen]AlMe [(naph)salen = N,N′-(2,3-naphthalene)bis(3,5-dimethylsalicylideneiminato)] was synthesized and fully characterized by NMR spectroscopy, high-resolution mass spectrometry, elemental analysis, and single-crystal XRD. The complex exhibits square-pyramidal geometry around the aluminum center in the solid-state structure, and it has a trigonality parameter τ of 0.13. Comparison of the catalytic activity of [(naph)salen]AlMe with that of four related aluminum complexes containing tetradentate salen ligands with different bridging groups revealed that the naphthyl-bridged salen-based aluminum complex, in conjunction with nBu4NI as cocatalyst, showed higher catalytic activity than the other complexes for the coupling of CO2 with epoxides under the mild conditions of room temperature and 5 bar of CO2 in 12 h. In addition, [(naph)salen]AlMe showed favorable features, such as requiring low catalyst loading (0.5 mol-%) and broad epoxide substrate scope, including six terminal epoxides and three internal epoxides.