Issue 1, 2023

Exploring the computational design of anionic spin-crossover systems

Abstract

In this work, a systematic study on how the ligand design in the anionic spin-crossover system [Fe(OEt-L1-pH)(NCS)3] can be used to achieve a high degree of tuning of its transition temperature (T1/2) is presented. Our calculations correctly reproduce the experimentally reported data and allow us to gain further and systematic insight on how to tune up or down the T1/2 value. The axial thiocyanate ligand can be replaced by similar groups (NCO, NCSe and NCBH3) that allows for a large change in the T1/2 value, while a much finer degree of tuning can be achieved by functionalizing the para position of the pyridine groups. Altogether, [Fe(OEt-L1-pH)(NCS)3] offers a unique platform to explore how ligand design can be realized to prepare new anionic SCO materials with tailored properties.

Graphical abstract: Exploring the computational design of anionic spin-crossover systems

Supplementary files

Article information

Article type
Research Article
Submitted
07 Oct 2022
Accepted
03 Nov 2022
First published
04 Nov 2022

Inorg. Chem. Front., 2023,10, 250-258

Exploring the computational design of anionic spin-crossover systems

L. Navarro and J. Cirera, Inorg. Chem. Front., 2023, 10, 250 DOI: 10.1039/D2QI02163C

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