Charge transfer and chemical potential in 1,3-dipolar cycloadditions

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作者
Ramón Alain Miranda-Quintana
Paul W. Ayers
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[1] University of Havana,Laboratory of Computational and Theoretical Chemistry, Faculty of Chemistry
[2] McMaster University,Department of Chemistry and Chemical Biology
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Conceptual density functional theory; Chemical reactivity theory; Electronic chemical potential;
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We revisit the role of the electronic chemical potential as the indicator for the tendency of chemical species to attract or donate electrons. Studying a set of 1,3-dipolar cycloadditions shows that the classical Mulliken expression is insufficient in some cases to accurately predict the direction of electron transfer. Agreement with experimental results can be achieved by including the effects of interactions between the reacting partners in the working equation used to calculate the chemical potential. We present a simple revision of the Mulliken expression, inspired by previous work from Gázquez, Cedillo, and Vela, that incorporates the interactions between the reagents in an approximate manner. The revised formula adequately describes the experimental data. We also explore how different methods for computing the ionization potential and electron affinity affect our results.
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