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Publication date: May 26, 2025
Understanding the thermodynamics of adsorbates on surfaces is central to many (electro)catalysis applications. In first-principles calculations, additional challenges arise when considering charged adsorbates owing to long-range electrostatic interactions in the in-plane and normal directions. Here, we derive an analytical correction to obtain the energy profiles of individual charged adsorbates on metallic surfaces from finite-cell calculations in periodic boundary conditions. The method is illustrated by calculating the adsorption energy profiles of Li+, Na+, and K+ on graphite from first-principles, highlighting the very slow convergence with system size of the periodic calculations and the need to correctly recover the infinite limit. In this record, we provide the generic input file used to generate the calculated energies of Fig. 4.
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File name | Size | Description |
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input_file.in
MD5md5:ca57a5d2898fae001831d0fa079a71af
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4.0 KiB | Typical Quantum ESPRESSO input file of graphite slab + Li+ system used to generate the calculated energies of Fig. 4. Here the slab contains 3 layers in the 3x2 cell. |
2025.86 (version v1) [This version] | May 26, 2025 | DOI10.24435/materialscloud:1n-sa |