Predicted Heat Flux Performance of Actively Cooled Tungsten-Armored Graphitic Foam Monoblocks

Engineering & Materials Science

• Tungsten 100%
• Facings 93%
• Foams 88%
• Heat flux 82%
• Coatings 69%
• Plasmas 63%
• Vapors 62%
• Tritium 61%
• Heat sinks 50%
• Thermal load 47%
• Copper 37%
• Water 37%
• Pyrometry 36%
• Testing 35%
• Deuterium 33%
• Calorimetry 30%
• Fusion reactors 30%
• Electron beams 27%
• Weighing 26%
• Research laboratories 25%
• Thermocouples 24%
• Melting point 24%
• Convection 22%
• Delamination 22%
• Thermal conductivity 20%
• Dynamic models 18%
• Fusion reactions 18%
• Temperature 18%
• Radiation 18%
• Computational fluid dynamics 17%
• Hot Temperature 11%
• Experiments 8%

Physics & Astronomy

• foams 91%
• heat flux 83%
• tungsten 78%
• coatings 62%
• heat sinks 55%
• vapors 52%
• tritium 48%
• interlayers 42%
• performance 40%
• water 39%
• inlet temperature 33%
• tubes 33%
• copper 33%
• heat 30%
• computational fluid dynamics 26%
• fusion reactors 25%
• leading edges 25%
• thermocouples 25%
• dynamic models 24%
• melting points 22%
• deuterium 21%
• temperature measurement 21%
• heat measurement 20%
• strip 20%
• convection 19%
• fusion 18%
• thermal conductivity 18%
• electron beams 16%
• conductivity 15%
• radiation 12%
• predictions 12%
• pulses 11%

Chemical Compounds

• Foam 84%
• Heat 68%
• Coating Agent 36%
• Pyrometry 27%
• Purity 23%
• Weighing 19%
• Delamination 18%
• Tritium 17%
• Electron Beam 16%
• Calorimetry 14%
• Tungsten 14%
• Flow 9%
• Surface 4%
• Application 4%