Application of Li-, Mg-, Ba-, Sr-, Ca-, and Sn-doped ceria for solar-driven thermochemical conversion of carbon dioxide
| Author | Takalkar, Gorakshnath |
| Author | Bhosale, Rahul R. |
| Author | Rashid, Suliman |
| Author | AlMomani, Fares |
| Author | Shakoor, Rana Abdul |
| Author | Al Ashraf, Abdullah |
| Available date | 2020-08-13T10:30:05Z |
| Publication Date | 2020-09-01 |
| Publication Name | Journal of Materials Science |
| Identifier | http://dx.doi.org/10.1007/s10853-020-04875-1 |
| Citation | Takalkar, G., Bhosale, R.R., Rashid, S. et al. Application of Li-, Mg-, Ba-, Sr-, Ca-, and Sn-doped ceria for solar-driven thermochemical conversion of carbon dioxide. J Mater Sci 55, 11797–11807 (2020). https://doi.org/10.1007/s10853-020-04875-1 |
| ISSN | 00222461 |
| Abstract | The redox reactivity of the Li-, Mg-, Ca-, Sr-, Ba-, and Sn-doped ceria (Ce0.9A0.1O2−δ) toward thermochemical CO2 splitting is investigated. Proposed Ce0.9A0.1O2−δ materials are prepared via co-precipitation of the hydroxide technique. The composition, morphology, and the average particle size of the Ce0.9A0.1O2−δ materials are determined by using suitable characterization methods. By utilizing a thermogravimetric analyzer setup, the long-term redox performance of each Ce0.9A0.1O2−δ material is estimated. The results obtained indicate that all the Ce0.9A0.1O2−δ materials are able to produce steady amounts of O2 and CO from cycle 4 to cycle 10. Based on the average nO2 released and nCO produced, the Ce0.899Sn0.102O2.002 and Ce0.895Ca0.099O1.889 are observed to be the top and bottom-most choices. When compared with the CeO2 material, all Ce0.9A0.1O2−δ materials showed elevated levels of O2 release and CO production. |
| Language | en |
| Publisher | Springer |
| Subject | morphology thermochemical carbon dioxide |
| Type | Article |
| Pagination | 11797–11807 |
| Issue Number | 26 |
| Volume Number | 55 |
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Chemical Engineering [1174 items ]