Fluid dynamics simulations for an open-sorption heat storage drum reactor based on thermophysical kinetics and experimental observations

Keyphrases

• Sorption Heat Storage 100%
• Reactor 100%
• Fluid Dynamics Simulation 100%
• Thermophysical 100%
• Adsorption 50%
• Mixing Algorithms 50%
• Discrete Particle Model 50%
• Temperature Shift 25%
• Molecular Sieve 25%
• Zeolite 25%
• Water Content 25%
• Process Air 25%
• Simulation-based 25%
• Interpolation Function 25%
• Laboratory Measurements 25%
• Physical Measurements 25%
• Temperature Level 25%
• Differential Scanning Calorimetry 25%
• Particle Simulation 25%
• Reaction Time 25%
• Flow Field 25%
• Numerical Optimization 25%
• Particle Mixing 25%
• Adsorption Kinetics 25%
• Sorption Materials 25%
• CFD Solver 25%
• Thermogravimetry 25%
• Open Sorption System 25%
• Temperature Peak 25%
• Air Temperature 25%
• Thermodynamic Process 25%
• Simulation Methodology 25%
• Numerical Description 25%
• LIGGGHTS 25%
• Energy Extraction 25%
• Temperature Gap 25%
• Navier-Stokes 25%
• Mixing Characteristics 25%
• Moving Bed 25%
• Kinetic Behavior 25%
• Rotating Drum 25%
• Porous Volume 25%
• Adsorption Reactor 25%

Engineering

• Sorption Heat Storage 100%
• Experimental Observation 100%
• Computer Simulation 100%
• Computational Fluid Dynamics 50%
• Transients 50%
• Future Design 50%
• Process Air 50%
• Numerical Optimization 50%
• Thermodynamic Process 50%
• Peak Temperature 50%
• Moving Bed 50%
• Interpolation Function 50%
• Parametric Study 50%
• Porosity 50%
• Flow Distribution 50%
• Moisture Content 50%

Chemical Engineering

• Differential Scanning Calorimetry 100%