Issue 17, 2008

A ligand-field study of the ground spin-state magnetic anisotropy in a family of hexanuclear Mn(iii) single-molecule magnets

Abstract

A ligand field analysis of two structurally related hexanuclear Mn(III) coordination complexes reveals that the observed difference in their ground spin-state anisotropy originates from the difference in projection coefficients of the single-ion anisotropy to spin states of different total spin quantum-number, S, rather than the geometrical distortions of the metal ions. Furthermore we show that the single-ion second order anisotropy induces fourth and higher order anisotropy terms to the ground spin states of the studied systems, as a consequence of spin-state mixing effects due to the comparable magnitude of the single-ion second order anisotropy and the isotropic exchange parameters.

Graphical abstract: A ligand-field study of the ground spin-state magnetic anisotropy in a family of hexanuclear Mn(iii) single-molecule magnets

Supplementary files

Article information

Article type
Paper
Submitted
26 Nov 2007
Accepted
01 Feb 2008
First published
03 Mar 2008

Dalton Trans., 2008, 2277-2284

A ligand-field study of the ground spin-state magnetic anisotropy in a family of hexanuclear Mn(III) single-molecule magnets

S. Piligkos, J. Bendix, H. Weihe, C. J. Milios and E. K. Brechin, Dalton Trans., 2008, 2277 DOI: 10.1039/B718225B

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