Three-dimensional model of heat transport during in situ vitrification with melting and cool down

Keyphrases

• In Situ 100%
• Heat Transport 100%
• Vitrification 100%
• Three Dimensional Model 100%
• Electrical Resistance Heating 66%
• Numerical Results 33%
• Finite Element Method 33%
• Energy Conservation 33%
• Electric Field (E-field) 33%
• Process Use 33%
• Soil Contamination 33%
• Heat Source Term 33%
• Field Equations 33%
• Energy Equation 33%
• Subsidence 33%
• Surrounding Soil 33%
• Mass Conservation 33%
• Time Profile 33%
• Region Growing 33%
• Surface Heat Loss 33%
• Melt Volume 33%
• Local Heat Source 33%
• Joule Heat 33%
• Waste Soil 33%

Engineering

• Heat Transport 100%
• Melting Point 100%
• Three-Dimensional Models 100%
• Electrical Resistance 66%
• Electric Resistance 66%
• Finite Element Analysis 33%
• Durables 33%
• Actuator 33%
• Heat Source 33%
• Electric Field 33%
• Conservation of Energy 33%
• Heat Loss 33%
• Field Equation 33%
• Heat Source Term 33%
• Energy Equation 33%
• Surrounding Soil 33%
• Conservation of Mass 33%

Earth and Planetary Sciences

• Actuator 100%
• Polluted Soils 50%
• Subsidence 50%
• Electric Field 50%