Publication date: Jan 29, 2024
Achieving fine control over the dispersion of supported platinum nanoparticles (Pt) is a promising avenue to enhance their catalytic activity and selectivity. Experimental observations suggest that exposing ceria-supported Pt nanoparticles to O₂ at 500 °C promote their dispersion into smaller particles and eventually single atoms. In the associated paper we have combined several approaches and types of models in a consistent atomistic framework to evaluate the relative stability of ceria-supported Pt as a function of the degree of oxidation of Pt and of the particle size, ranging from single atoms to nanoparticles of 1.5 nm of diameter.
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FIGURE_S1.zip
MD5md5:cc9827056e9d955b7501b88ba56dc0e7
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27.4 KiB | CONTCAR and INCAR files for structures in Figure S1 of the associated paper |
FIGURE_S2.zip
MD5md5:cfd3809697d4f51d8efbbaead2cb8445
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14.3 KiB | CONTCAR and INCAR files for structures in Figure S2 of the associated paper |
FIGURE_S3.zip
MD5md5:e3580567925a912027956e1bb9943565
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10.2 KiB | CONTCAR and INCAR files for structures in Figure S3 of the associated paper |
FIGURE_S4.zip
MD5md5:7f0d1e03d2871adda83f6c0e00a61405
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35.2 KiB | CONTCAR and INCAR files for structures in Figure S4 of the associated paper |
FIGURE_S5.zip
MD5md5:3c4c0cedb2c47ff65165cfdcfd064b31
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77.8 KiB | CONTCAR and INCAR files for structures in Figure S5 of the associated paper |
2024.17 (version v1) [This version] | Jan 29, 2024 | DOI10.24435/materialscloud:sw-3c |