Heterogeneous Catalytic Fixation of Carbon Dioxide for Synthesis of Carbonyl Derivatives

doi:10.6023/cjoc202405033

Abstract

As an effective way to utilize CO₂ resources, multiphase catalytic carbon fixation is of great significance to promote carbon neutrality and carbon peak. The exploration of this reaction is of guiding significance to the establishment of other catalytic systems. This paper reviews the recent progress in the synthesis of a series of carbon dioxide fixed carbonyl derivatives by heterogeneous catalysis in the fields of photocatalysis, electrocatalysis, thermal catalysis, and photothermal catalysis. The synthesis of carbonyl derivatives by different heterogeneous catalysis CO₂, including organic carbonates, carbamates and carboxylic acids, is introduced. The reaction mechanism of these reactions is discussed. This provides a reference for the design and realization of the polyphase catalytic fixed CO₂ reaction.

Key words: heterogeneous catalysis, fixation of carbon dioxide, carbonyl derivatives

Cite this article

Yuyuan Zhang, Changjie Yang, Haitao Tang, Yingming Pan. Heterogeneous Catalytic Fixation of Carbon Dioxide for Synthesis of Carbonyl Derivatives[J]. Chinese Journal of Organic Chemistry, 2024, 44(10): 3077-3090.

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Fig. & Tab. 18

Figure 1. Heterogeneous catalytic synthesis of carbonyl derivatives from carbon dioxide

Figure 2. CuAg NWs fixes CO2 to produce carboxylic acids

Figure 3. Ag-CeO2 NWs fixed CO2 to produce phenyllactic acid

Figure 4. Cu-SnO2 reduces CO2 to formic acid

Figure 5. HNSs fixed CO2 to produce cyclic carbonates

Figure 6. d-BCN fixed CO2 to produce carboxylic acids

Figure 7. OH-P[5]-on-COF fixed CO2 to produce cyclic carbonates

Figure 8. Mg-NC fixed CO2 to produce cyclic carbonates

Figure 9. CTO fixed CO2 to produce N-methylformylanilide

Figure10. Au-MOFs fixed CO2 to produce carboxylic acids

Figure 11. POMP-NHC-Ir fixed CO2 to produce amide compound

Figure 12. Ir1-WO3 fixed CO2 to produce cyclic carbonates

Figure 13. {(ME2NH2)2[Co3(BCP)2]?6H2O?4DMF}n fixed CO2 to produce oxazolidinones

Figure 14. PIL-s1-HCO3 fixed CO2 to produce formamide products

Figure 15. Cu@NHC-1 fixed CO2 to produce oxazolidinones

Figure 16. Ag@POP-NL-3 fixed CO2 to produce cyclic carbonate ester

Figure 17. Photocatalytic reduction of CO2 via CdS/VS-MoS2

Figure 18. CoFe2O4@TPA fixes CO2 to produce carbonate under photothermal conditions

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