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Successful transformation of carbon dioxide (CO 2 ) into value-added products is of great interest, as it contributes in part to the circular carbon economy. Understanding chemical interactions that stabilize crucial reaction intermediates of CO 2 is important, and in this contribution, we employ atom centered density matrix propagation (ADMP) molecular dynamics simulations to investigate interactions between CO 2  - anion radicals with surrounding solvent molecules and electrolyte cations in both aqueous and nonaqueous environments. We show how different cations and solvents affect the stability of the CO 2  - anion radical by examining its angle and distance to a coordinating cation in molecular dynamics simulations. We identify that the strength of CO 2  - interactions can be tailored through choosing an appropriate cation and solvent combination. We anticipate that this fundamental understanding of cation/solvent interactions can facilitate the optimization of a chemical pathway that results from selective stabilization of a crucial reaction intermediate.

Interactions of CO2 Anion Radicals with Electrolyte Environments from First-Principles Simulations

Interactions of CO₂ Anion Radicals with Electrolyte Environments from First-Principles Simulations