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January 22, 2026Bulletin of the Korean Chemical Society0 citations

A biphasic homogeneous catalytic strategy enabling simplified product separation in CO 2 ‐to‐calcium formate conversion

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MGMinkyoung GoChung-Ang UniversitySYSungho YoonChung-Ang University

Key Points

  • The study aims to create an efficient method for converting CO2 to calcium formate with simplified separation.
  • Developed a biphasic homogeneous catalytic route using Ru–MACHO and a water-insoluble amine.
  • Employed a non-polar solvent to optimize phase separation between product and catalyst.
  • Systematically optimized reaction parameters to maximize calcium formate yield.
  • Evaluated the stability of the catalyst throughout the process.
  • Confirmed successful and efficient CO2 hydrogenation to calcium formate.
  • Achieved spontaneous phase separation, enhancing product recovery.
  • Demonstrated improved energy efficiency compared to previous methods.
  • Sustainability of the biphasic system was highlighted through reduced energy demands.

Abstract

Abstract A biphasic homogeneous catalytic route was developed for the conversion of CO 2 to calcium formate, aiming to overcome the energy‐intensive separation associated with previously reported CO 2 ‐to‐formate processes using a highly water‐soluble amine. The process employs a Ru–MACHO catalyst dissolved in a non‐polar solvent and a water‐insoluble tertiary amine as a reactive component. This phase configuration enables efficient CO 2 hydrogenation to formate while allowing spontaneous phase separation between the product‐containing aqueous layer and the catalyst‐containing organic phase. Subsequent addition of CaO converts the amine–formate adduct into calcium formate dissolved in the aqueous phase and simultaneously regenerates the amine without the need for energy‐demanding distillation. Reaction parameters and amine selection were systematically optimized to maximize calcium formate formation, and the catalyst stability was subsequently evaluated. The results confirm that the biphasic homogeneous design effectively simplifies the product separation process compared with previously reported systems. These results highlight the sustainability of the biphasic homogeneous catalytic system for energy‐efficient CO 2 ‐to‐calcium formate conversion.

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Cite This Study

Go et al. (2026) studied this question.

synapsesocial.com/papers/6971bd26642b1836717e1e96https://doi.org/10.1002/bkcs.70103
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