Ash deposition modeling using a visco-elastic approach

Keyphrases

• Numerical Results 100%
• Hollow 100%
• Gasifier 100%
• Ash Particles 100%
• Glass Particles 100%
• Ash Deposition 100%
• Elastic Approach 100%
• Deposition Modeling 100%
• Combustor 50%
• Mechanical Properties 50%
• Kinetic Energy 50%
• Comprehensive Approach 50%
• Inertia 50%
• Performance Efficiency 50%
• Young's Modulus 50%
• Boundary Surface 50%
• Netherlands 50%
• Mechanical Model 50%
• Particle Size 50%
• Viscoelastic Solid 50%
• Stickiness 50%
• Work of Adhesion 50%
• Surface Energy 50%
• Plastic Particles 50%
• Energy Research 50%
• Boiler 50%
• Pulverized Fuel 50%
• Entrained Flow Reactor 50%
• Heat Exchanger 50%
• Ash Composition 50%
• Co-firing 50%
• Biomass Ash 50%
• Viscoelastic Model 50%
• Wall Boundary 50%
• Particle Adhesion 50%
• JKR Theory 50%
• Elastic-plastic 50%
• Energy Restitution Coefficient 50%
• Silica Content 50%
• Flow Data 50%
• CFD Program 50%
• Mechanical Adhesion 50%
• Particle Tracking Code 50%
• Particle Dispersion 50%
• Particle Composition 50%
• Particle Deformation 50%
• Lagrangian Particle Tracking 50%
• Rheological Model 50%
• High-silica 50%
• Coefficient of Restitution 50%
• Deposit Build-up 50%

Engineering

• Energy Engineering 100%
• Computational Fluid Dynamics 66%
• Gasifiers 66%
• Ash Particle 66%
• Phase Composition 66%
• Boundary Surface 33%
• Flow Reactor 33%
• Ash Content 33%
• Steam Generator 33%
• Biomass Ash 33%
• Temperature Time 33%
• Impaction 33%
• Elastic Model 33%
• Impacted Surface 33%
• Data Field 33%
• Mechanical Adhesion 33%
• Work of Adhesion 33%
• Elastic Solid 33%
• Pulverized Fuel 33%
• Exchanger 33%
• Silicon Dioxide 33%
• Interfacial Energy 33%
• Modulus of Elasticity 33%
• Combustion Chamber 33%