Publication Type
Journal Article
Publication Date (Issue Year)
2024
Journal Name
Journal of Molecular Modeling
Abstract
The study investigates the impact of Hubbard U correction and spin-orbit coupling (SOC) on the structural, mechanical, electronic, and optical properties of and compounds. The research is motivated by the potential applications of these materials in photovoltaics, with a focus on understanding their properties for such use. The ductility, ionicity, and mechanical stability of both compounds at zero pressure are assessed, indicating their potential as resilient materials. Also, the compounds display high refractive indices and absorption coefficients, indicating their suitability for solar harvesting applications. The predicted bandgaps align primarily with the UV–Vis areas of the electromagnetic spectrum, highlighting their potential in this domain.
Keywords
Optical properties, Electronic and elastic properties, DFT + U, Spin orbit coupling, ATiO3 (A=Ti, Sr)
Grantee Name(s)
Lynet Allan
Project Title
Self-cleaning solar module for enhanced electrical output
Type of Grant
Research Award
Thematic Area
Energy including Renewables
Funding Statement
Open access funding provided by University of Pretoria. The Partnership for Skills in Applied Sciences, Engineering, and Technology (PASET)-Regional Scholarship Innovation Fund provided funding for this project (RSIF). The Center for High-Performance Computing, CHPC, Cape, is acknowledged by the authors as a source of HPC resources.
Recommended Citation
Allan, L., Mulwa, W. M., Mapasha, R. R., Mwabora, J. M., & Musembi, R. J. (2024). First principle study of ATiO (A=Ti,Sr) materials for photovoltaic applications. Journal of Molecular Modeling https://doi.org/10.1007/s00894-023-05823-x