Trinuclear CuIIMIICuII complexes of an oxamide/dioxime ligand and extension to a bimetallic magnetic compound
Abstract
         )}2(DMF
)}2(DMF )2] (MII = Mn 1, Co 2, Ni 3 or Zn 4). The crystal structures of 1–4 have been determined by
)2] (MII = Mn 1, Co 2, Ni 3 or Zn 4). The crystal structures of 1–4 have been determined by ![[double bond, length half m-dash]](https://www.rsc.org/images/entities/char_e006.gif) N–O ⋯ H ⋯ O–N
N–O ⋯ H ⋯ O–N![[double bond, length half m-dash]](https://www.rsc.org/images/entities/char_e006.gif) ) groups to form a square-pyramidal structure {Cu(HL)(DMF
) groups to form a square-pyramidal structure {Cu(HL)(DMF )} together with a DMF molecule. Two {Cu(HL)(DMF
)} together with a DMF molecule. Two {Cu(HL)(DMF )} entities co-ordinate to a MnII through the oxamidate oxygens to afford a cis octahedral environment about the metal together with two DMF oxygens. The CuII ⋯ MII intermetallic distance separated by the oxamidate bridge is 5.33–5.49 Å. In the case of 1 and 3 a significant antiferromagnetic interaction operates between the adjacent CuII and MII. The reaction of 1 with MnII in
)} entities co-ordinate to a MnII through the oxamidate oxygens to afford a cis octahedral environment about the metal together with two DMF oxygens. The CuII ⋯ MII intermetallic distance separated by the oxamidate bridge is 5.33–5.49 Å. In the case of 1 and 3 a significant antiferromagnetic interaction operates between the adjacent CuII and MII. The reaction of 1 with MnII in 
 
                



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