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典型文献
Theoretical Study of Hydrogen-Bond Interactions of CO2 in Organic Absorbent 1,3-Diphenylguanidinet
文献摘要:
Carbon capture and storage tech-nology have been rapidly devel-oped to reduce the carbon diox-ide(CO2)emission into the envi-ronment.It has been found that the amine-based organic molecules could absorb CO2 efficiently and form the bicarbonate salts through hydrogen-bond(H-bond)interactions.Recently,the aqueous 1,3-diphenylguanidine(DPG)solution was developed to trap and convert CO2 to valuable chemicals under ambient condi-tions.However,how the DPG molecules interact with CO2 in an aqueous solution remains unclear.In this work,we perform molecular dynamics simulations to explore the atom-istic details of CO2 in the aqueous DPG.The simulated results reveal that the protonated DPGH+and the bicarbonate anions prefer to form complexes through different H-bond pat-terns.These double H-bonds are quite stable in thermodynamics,as indicated from the accurate density functional theory calculations.This study is helpful to understand the catalytic mechanism of CO2 conversion in the aqueous DPG.
文献关键词:
作者姓名:
Yiqiu Wang;Han Gao;Yajing Li;Igor Ying Zhang;Fei Xia
作者机构:
School of Chemistry and Molecular Engineering,NYU-ECNU Center for Computational Chemistry at NYU Shanghai,East China Normal University,Shanghai 200062,China;Collaborative Innovation Center of Chemistry for Energy Materials,Shanghai,Key Laboratory of Molecular Catalysis and Innovative Materials,MOE Key Laboratory of Computational Physical Sciences,Departments of Chemistry,Fudan University,Shanghai 200433,China
引用格式:
[1]Yiqiu Wang;Han Gao;Yajing Li;Igor Ying Zhang;Fei Xia-.Theoretical Study of Hydrogen-Bond Interactions of CO2 in Organic Absorbent 1,3-Diphenylguanidinet)[J].化学物理学报(英文版),2022(03):471-480
A类:
Diphenylguanidinet,diphenylguanidine,DPGH+and
B类:
Theoretical,Study,Hydrogen,Bond,Interactions,Organic,Absorbent,Carbon,capture,storage,tech,nology,have,been,rapidly,reduce,diox,ide,emission,into,envi,ronment,It,has,found,that,amine,organic,molecules,could,absorb,efficiently,bicarbonate,salts,through,hydrogen,interactions,Recently,aqueous,solution,was,developed,trap,convert,valuable,chemicals,ambient,condi,However,how,remains,unclear,this,work,perform,molecular,simulations,explore,atom,istic,details,simulated,results,reveal,protonated,anions,prefer,complexes,different,pat,terns,These,double,bonds,are,quite,stable,thermodynamics,indicated,from,accurate,density,functional,theory,calculations,This,study,helpful,understand,catalytic,mechanism,conversion
AB值:
0.631593
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