Abstract
Ionic liquids are universally considered to be materials of the future. Their peculiar properties appeal to the most diverse technological areas such as chemical industry, electrochemistry, optics, environmental chemistry, medicine and nanotechnology. It is the peculiar microscopic structure that determines the macroscopic properties of these fluids and the tuning of these properties depends ultimately on small modifications of the material at the molecular level. Most of the technologically interesting properties that are proper to this class of compounds are due to the electrostatic interactions between the ionic components. Though these interactions are quite strong, the “sterical” mismatch between the ionic partners is such that the fluid remains liquid even at room temperature since the formation of a regular lattice is frustrated. Theoretical simulations of ionic liquids represent nowadays a well-established tool for predicting and explaining the properties of these materials and interpreting the experimental results. The framework in which it is possible to provide high quality studies of the microscopic structure of the ionic liquid is mainly represented by classical molecular mechanics and, only very recently, by ab-initio molecular dynamics. While the employed theoretical techniques are not very different from those used for conventional fluids, many difficulties arise because of the microscopic nature of ionic liquids. In this chapter we would like to summarize and review the recent developments and possible future opportunities of theoretical simulations of ionic liquids. In particular we will review some of the issues connected to the theoretical simulations of ionic liquids. We shall also review the theoretical methods in general and the peculiarities in their application to ionic liquids.
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Bodo, E., Migliorati, V. (2014). Theoretical Description of Ionic Liquids. In: Caminiti, R., Gontrani, L. (eds) The Structure of Ionic Liquids. Soft and Biological Matter. Springer, Cham. https://doi.org/10.1007/978-3-319-01698-6_5
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