Predictive modeling of a lithium vapor box divertor in NSTX-U using SOLPS-ITER

Physics & Astronomy

• plasma layers 100%
• simulators 75%
• boxes 73%
• lithium 68%
• vapors 58%
• detachment 27%
• heat flux 23%
• condensing 16%
• evaporation rate 15%
• upstream 12%
• transport properties 10%
• gradients 8%
• evaporators 8%
• plasma pressure 8%
• power plants 7%
• pressure drop 7%
• gases 6%
• deuterium 5%
• fusion 5%
• energy dissipation 5%
• chambers 5%
• sputtering 5%
• simulation 4%
• evaporation 4%
• electron energy 4%
• boundary conditions 4%
• ionization 4%
• life (durability) 4%
• impurities 4%
• heat 4%
• geometry 3%
• radiation 3%
• predictions 3%

Engineering & Materials Science

• Lithium 85%
• Plasmas 71%
• Vapors 69%
• Simulators 56%
• Computer simulation 42%
• Heat flux 23%
• Evaporation 19%
• Electron temperature 11%
• Deuterium 9%
• Density of gases 9%
• Ionization 8%
• Sputtering 8%
• Density (specific gravity) 7%
• Gases 7%
• Evaporators 6%
• Impurities 6%
• Pressure drop 5%
• Energy dissipation 5%
• Power plants 5%
• Fusion reactions 5%
• Radiation 5%
• Boundary conditions 4%
• Geometry 3%
• Hot Temperature 3%

Chemical Compounds

• Plasma 47%
• Heat 23%
• Rate of Evaporation 18%
• Electron Temperature 9%
• Evaporator 8%
• Simulation 8%
• Pressure Drop 8%
• Sputtering 6%
• Gas 6%
• Deuterium(.) 5%
• Evaporation 5%
• Ionization 5%
• Force 4%
• Surface 4%
• Porosity 3%
• Energy 3%