A computational framework for the pyrolysis of anisotropic biomass particles

Keyphrases

• Anisotropic Particles 33%
• Anisotropy 33%
• Arbitrary Geometry 33%
• Biomass Particle 100%
• Chemical Kinetics 33%
• Comparison with Experimental Data 33%
• Comprehensive Approach 33%
• Computational Framework 100%
• Governing Equation 33%
• Major Species 33%
• Mass Volume 33%
• Navier-Stokes Equations 33%
• Non-uniform Boundary Conditions 33%
• OpenFOAM 33%
• Operative Conditions 33%
• Particle Deformation 33%
• Particle Scale 33%
• Physical Phenomena 33%
• Porous Media 33%
• Pyrolysis 100%
• Rational Modeling 33%
• Reactor Scale 33%
• Relative Role 33%
• Solid Particles 33%
• Spatial Discretization 33%
• Temperature History 33%
• Thermal Decomposition 33%
• Thermochemical Conversion 33%
• Transport Phenomena 33%
• Volume Loss 33%
• Wavefront 33%

Engineering

• Anisotropic 100%
• Boundary Condition 33%
• Deep Understanding 33%
• Fitting Parameter 33%
• Multiscale 33%
• Navier-Stokes Equation 33%
• Operative Condition 33%
• Physical Phenomena 33%
• Pyrolysis 100%
• Solid Particle 33%
• Spatial Discretization 33%
• Thermochemical Conversion 33%
• Thermochemical Process 33%
• Transients 33%
• Transport Phenomena 33%

Chemical Engineering

• Pyrolysis 100%