Thermo-structural analysis of a honeycomb-type volumetric absorber for concentrated solar power applications

Keyphrases

• Absorber 100%
• Thermo-structural Analysis 100%
• Volumetric Absorber 100%
• Concentrated Solar Power Applications 100%
• Steady State 40%
• Discrete Model 40%
• Continuum Model 40%
• Thermal Stress 20%
• Thermal Analysis 20%
• Design Methodology 20%
• Solid Phase 20%
• Modeling Process 20%
• High Stress 20%
• Design Process 20%
• Proper Design 20%
• System Failure 20%
• Explicit Model 20%
• Fluid Dynamics 20%
• Stress Level 20%
• Multi-channel 20%
• Steady-state Conditions 20%
• Transient State 20%
• Geometry Design 20%
• High Temperature Stress 20%
• Thermo-mechanical Stress 20%
• Heat Transfer Dynamics 20%
• Dynamic Phenomena 20%
• Volumetric Air Receiver 20%
• Thermal Stress Analysis 20%
• Heat Power 20%
• Conjugate Heat Transfer 20%
• Fluid Phase 20%
• Power Generation 20%
• Operating State 20%
• Steady-state Heat Transfer 20%
• Radiation Flux 20%
• Normal Operating Conditions 20%
• Stress Value 20%
• Airflow Temperature 20%
• Heat Fluid 20%
• Intense Radiation 20%
• Explicit Geometry 20%
• High Thermal Stress 20%
• Transient-state Models 20%
• Efficient Heat Transfer 20%

Engineering

• Thermal Stress 100%
• Concentrated Solar Power 100%
• Continuum Model 100%
• Discrete Model 100%
• Mechanical Stress 50%
• Proper Design 50%
• Initial State 50%
• Power Generation 50%
• State Condition 50%
• State Model 50%
• Stress Level 50%
• Multichannel 50%
• Thermal Stress Analysis 50%
• Normal Operating Condition 50%
• Operating State 50%
• Temperature Stress 50%
• Thermal State 50%
• Air Receiver 50%
• Fluid Dynamics 50%
• Air Flow 50%

INIS

• steady-state conditions 100%
• applications 100%
• power 100%
• design 100%
• heat transfer 100%
• thermal stresses 75%
• values 50%
• levels 25%
• solids 25%
• fluids 25%
• air 25%
• modeling 25%
• failures 25%
• geometry 25%
• air flow 25%
• transients 25%
• clouds 25%
• fluid mechanics 25%
• heat 25%
• power generation 25%
• thermal analysis 25%
• radiation flux 25%
• stress analysis 25%