An explainable machine-learning framework was developed for dielectric constant prediction using 52,168 crystalline materials extracted from the Joint Automated Repository for Various Integrated Simulations (JARVIS-DFT) database, demonstrating the complementary roles of electronic structure and elemental chemistry.
An artificial intelligence model developed to predict the dielectric constants of a wide range of materials, including traditional semiconductors, ferroelectrics, and advanced materials, is introduced, showing high accuracy even for materials that are less studied or for novel materials like graphene and nanowires.
The results demonstrate that machine learning can efficiently identify promising dopant configurations while providing reliable predictions of dopant-dependent material properties, and offers a practical approach for the computational design of doped 2D oxide semiconductors for future optoelectronic and sensing applica...
H. S. Dibbo, M. I. Nahid· 2D Materials· 0 citations
A unified multiscale system that entails the implementation of density functional theory (DFT), machine learning (ML), and device-level simulation to hasten the search and development of high-performance perovskite solar cell materials is presented.
Sameer Pandey, N. Shukla, Vishal K. Sharma et al.· Applied Nanoscience· 0 citations
A design principle is proposed for advanced metal nitride HEDMs: prioritizing high nitrogen-to-metal ratios, light metal elements, and structures wherein nitrogen atoms are spatially separated by the metal matrix, which minimizes N-N bonds and favors dominant M-N bonding.
Yaozhong Liu, Huifang Du, Caimu Wang et al.· Chinese Physics B· 0 citations
The Northeast Materials Database is leveraged to develop machine learning models that predict magnetic materials with targeted Curie temperatures from composition-derived descriptors rooted in molecular-level elemental properties, supplemented by a small set of coarse crystal-system and structure-family indicators.
F. Uçar, Nida Katı· Scientific Reports· 0 citations
Evaluated classical machine-learning models trained on different descriptor sets including DFT band gap, non-orbital compositional descriptors, orbital-related descriptors, SOAP structural fingerprints, and a reduced mixed descriptor set to predict DFT-derived transport conductivity demonstrate that accurate prediction...
Fatemeh Mohammad Dezashibi, F. Roshani· Scientific Reports· 0 citations
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