Materials Project • the Harvard Clean Energy Project • the Electronic Structure Project • NoMaD • NRELMatDB • the Computational Materials Repository Databases from calculations
Materials Project • the Harvard Clean Energy Project • the Electronic Structure Project • NoMaD • NRELMatDB • the Computational Materials Repository Databases from calculations
176,851 4,421,275 n = 2 n = 3 n = 4 8.1x104 1.1x107 1.1x109 Including all known oxidation states: Element Combinations Considering the first 103 elements: Multiple oxidation states? Sn(II)O Sn(IV)O2 Sn(II)Sn(IV)O3
176,851 4,421,275 Including stoichiometries of 1 ≤ w,x,y,z≤ 8: n = 2 n = 3 n = 4 8.1x104 1.1x107 1.1x109 Aw Bx Aw Bx Cy Aw Bx Cy Dz combos 3.4x106 4.8x109 4.1x1012 Element Combinations Considering the first 103 elements: Including all known oxidation states: Stoichiometry limit? Ternary pyrochlore oxides: A2 B2 O7 Quaternary double perovskites: A2 BCO6
of compounds E.g. the Solid State Energy (SSE) scale: Filtering for electronic properties “SSE is estimated for a given atom by assessing an average EA (for a cation) or an average IP (for an anion) for binary inorganic compounds having that specific atom as a constituent.”1 Screening for chalcohalide photoelectric water splitters: 1. Pelatt et al., J. Solid State Chem., 2015, 231, 138
perovskite structure can be estimated using Goldschmidt radius ratio rules:1 = : + < 2 > + < Filtering for structural properties 1. V. M. Goldschmidt,J. Chem. Soc., 1937, 655
• Data is algorithmically accessible in a unified object orientated interface SMACT Semiconducting Materials by Analogy and Chemical Theory www.github.com/WMD-group/SMACT