Impact of nonparabolic electronic band structure on the optical and transport properties of photovoltaic materials

Engineering & Materials Science

• Carrier concentration 100%
• Band structure 98%
• Polarons 92%
• Optical properties 87%
• Electrons 70%
• Semiconductor materials 62%
• Spin orbit coupling 49%
• Electron transport properties 47%
• Valence bands 42%
• Excitons 41%
• Conduction bands 40%
• Binding energy 37%
• Density functional theory 35%
• Carrier mobility 35%
• Electronic structure 34%
• Perovskite 32%
• Thin films 22%
• Materials properties 19%
• Sampling 16%
• Defects 16%
• Temperature 9%

Chemical Compounds

• Effective Mass 99%
• Electronic Band Structure 71%
• Transport Property 66%
• Optical Property 51%
• Polaron 43%
• Semiconductor 40%
• Acceptor Level 29%
• Donor Level 28%
• Compound Mobility 26%
• Free Electron 22%
• Spin-Orbit Coupling 21%
• Valence Band 19%
• Electron Particle 19%
• Conduction Band 19%
• Exciton 17%
• Electron Transport 17%
• Binding Energy 15%
• Sampling 14%
• Halide 13%
• Electronic State 12%
• Density Functional Theory 10%
• Application 5%

Physics & Astronomy

• transport properties 55%
• optical properties 45%
• electronics 36%
• polarons 28%
• electrons 17%
• least squares method 16%
• range (extremes) 16%
• halides 15%
• approximation 14%
• carrier mobility 14%
• free electrons 13%
• conduction bands 12%
• binding energy 12%
• sampling 11%
• perovskites 11%
• adjusting 11%
• excitons 11%
• density functional theory 10%
• electronic structure 10%
• valence 10%
• orbits 10%
• perturbation 9%
• radii 8%
• sensitivity 8%
• defects 7%
• thin films 7%
• temperature 4%