Manganese(II), Iron(II), Cobalt(II), and Copper(II) Complexes of an Extended Inherently Chiral Tris-Bipyridyl Cage

Manganese(II), iron(II), cobalt(II), and copper(II) derivatives of two inherently chiral, Tris(bipyridyl) cages (L and L') of type$[ML](PF_{6})_{2}(solvent)_{n}$and [FeL'](ClO₄)₂ are reported, where L is the hexa-tertiary butyl-substituted derivative of L'. These products were obtaine...

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Veröffentlicht in:Proceedings of the National Academy of Sciences - PNAS 2006-01, Vol.103 (3), p.532-537
Hauptverfasser: Perkins, David F., Lindoy, Leonard F., McAuley, Alexander, Meehan, George V., Turner, Peter
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container_title Proceedings of the National Academy of Sciences - PNAS
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creator Perkins, David F.
Lindoy, Leonard F.
McAuley, Alexander
Meehan, George V.
Turner, Peter
description Manganese(II), iron(II), cobalt(II), and copper(II) derivatives of two inherently chiral, Tris(bipyridyl) cages (L and L') of type$[ML](PF_{6})_{2}(solvent)_{n}$and [FeL'](ClO₄)₂ are reported, where L is the hexa-tertiary butyl-substituted derivative of L'. These products were obtained by using the free cage and metal template procedures; the latter involved the reductive amination of the respective Tris-dialdehyde precursor complexes of iron(II), cobalt(II), or nickel(II). Electrochemical, EPR, and NMR studies have been used to probe the nature of the individual complexes. X-ray structures of the manganese(II), iron(II), and copper(II) complexes of L and the iron(II) complex of L' are presented; these are compared with the previously reported structures of the corresponding nickel(II) complex and metal-free cage (L). In each complex the metal cation occupies the cage's central cavity and is coordinated to six nitrogens from the three bipyridyl groups. The cations [MnL]²⁺ and [FeL]²⁺ are isostructural but both exhibit a different arrangement of the bound cage to that observed in the corresponding nickel(II) and copper(II) complexes. The latter have an exo-exo arrangement of the bridgehead nitrogen lone pairs, with the metal inducing a triple helical twist that extends ≈22 Å along the axial length of each complex. In contrast, [MnL]²⁺ and [FeL]²⁺ have their terminal nitrogen lone pairs directed endo, causing a significant change in the configuration of the bound ligand. In [FeL']²⁺, the cage has both bridgehead nitrogen lone pairs orientated exo. Semiempirical calculations indicate that the observed endo-endo and exo-exo arrangements are of comparable energy.
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These products were obtained by using the free cage and metal template procedures; the latter involved the reductive amination of the respective Tris-dialdehyde precursor complexes of iron(II), cobalt(II), or nickel(II). Electrochemical, EPR, and NMR studies have been used to probe the nature of the individual complexes. X-ray structures of the manganese(II), iron(II), and copper(II) complexes of L and the iron(II) complex of L' are presented; these are compared with the previously reported structures of the corresponding nickel(II) complex and metal-free cage (L). In each complex the metal cation occupies the cage's central cavity and is coordinated to six nitrogens from the three bipyridyl groups. The cations [MnL]²⁺ and [FeL]²⁺ are isostructural but both exhibit a different arrangement of the bound cage to that observed in the corresponding nickel(II) and copper(II) complexes. The latter have an exo-exo arrangement of the bridgehead nitrogen lone pairs, with the metal inducing a triple helical twist that extends ≈22 Å along the axial length of each complex. In contrast, [MnL]²⁺ and [FeL]²⁺ have their terminal nitrogen lone pairs directed endo, causing a significant change in the configuration of the bound ligand. In [FeL']²⁺, the cage has both bridgehead nitrogen lone pairs orientated exo. 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These products were obtained by using the free cage and metal template procedures; the latter involved the reductive amination of the respective Tris-dialdehyde precursor complexes of iron(II), cobalt(II), or nickel(II). Electrochemical, EPR, and NMR studies have been used to probe the nature of the individual complexes. X-ray structures of the manganese(II), iron(II), and copper(II) complexes of L and the iron(II) complex of L' are presented; these are compared with the previously reported structures of the corresponding nickel(II) complex and metal-free cage (L). In each complex the metal cation occupies the cage's central cavity and is coordinated to six nitrogens from the three bipyridyl groups. The cations [MnL]²⁺ and [FeL]²⁺ are isostructural but both exhibit a different arrangement of the bound cage to that observed in the corresponding nickel(II) and copper(II) complexes. The latter have an exo-exo arrangement of the bridgehead nitrogen lone pairs, with the metal inducing a triple helical twist that extends ≈22 Å along the axial length of each complex. In contrast, [MnL]²⁺ and [FeL]²⁺ have their terminal nitrogen lone pairs directed endo, causing a significant change in the configuration of the bound ligand. In [FeL']²⁺, the cage has both bridgehead nitrogen lone pairs orientated exo. 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These products were obtained by using the free cage and metal template procedures; the latter involved the reductive amination of the respective Tris-dialdehyde precursor complexes of iron(II), cobalt(II), or nickel(II). Electrochemical, EPR, and NMR studies have been used to probe the nature of the individual complexes. X-ray structures of the manganese(II), iron(II), and copper(II) complexes of L and the iron(II) complex of L' are presented; these are compared with the previously reported structures of the corresponding nickel(II) complex and metal-free cage (L). In each complex the metal cation occupies the cage's central cavity and is coordinated to six nitrogens from the three bipyridyl groups. The cations [MnL]²⁺ and [FeL]²⁺ are isostructural but both exhibit a different arrangement of the bound cage to that observed in the corresponding nickel(II) and copper(II) complexes. The latter have an exo-exo arrangement of the bridgehead nitrogen lone pairs, with the metal inducing a triple helical twist that extends ≈22 Å along the axial length of each complex. In contrast, [MnL]²⁺ and [FeL]²⁺ have their terminal nitrogen lone pairs directed endo, causing a significant change in the configuration of the bound ligand. In [FeL']²⁺, the cage has both bridgehead nitrogen lone pairs orientated exo. Semiempirical calculations indicate that the observed endo-endo and exo-exo arrangements are of comparable energy.</abstract><cop>United States</cop><pub>National Academy of Sciences</pub><pmid>16407129</pmid><doi>10.1073/pnas.0508539103</doi><tpages>6</tpages><oa>free_for_read</oa></addata></record>
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subjects Chemistry
Crystal structure
Deoxyribonucleic acid
DNA
Iron
Jahn Teller effect
Ligands
Metal ions
Molecules
Nitrogen
Physical Sciences
Quaternary ammonium compounds
Sodium
Solvents
title Manganese(II), Iron(II), Cobalt(II), and Copper(II) Complexes of an Extended Inherently Chiral Tris-Bipyridyl Cage
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