Bridging Scales in Modelling and Simulating Reacting Flows, Part I , Volume 52 presents key methods to bridge scales in the simulation of reacting single phase flows. New sections in the updated release include topics such as quadrature-based moment methods for multiphase chemically reacting flows, the collaboration of experiments and simulations for the development of predictive models, a simulation of turbulent coalescence and breakage of bubbles and droplets in the presence of surfactants, a section on salts and contaminants, and information on the numerical simulation of reactive flows.
1. 1 Introduction - p. 2 2. 2 Quadrature-Based Moment Methods - p. 12 3. 3 Kinetic-Based Finite-Volume Methods - p. 17 4. 4 Application to Turbulent Reacting Flows - p. 22 5. 5 Application to the Population Balance Equation for Fine Particles - p. 30 6. 6 Application to the Kinetic Equation for Gas–Particle Flows - p. 33 7. 7 Concluding Remarks - p. 46 8. Chapter Two: Numerical Simulation of Multiphase Reactive Flows - p. 50 9. Abstract - p. 51 10. 1 Introduction - p. 55 11. 2 Brief Description of the Experimental Campaign - p. 57 12. 3 Modeling Description - p. 59 13. 4 Numerical Simulations - p. 65 14. 5 Results and Discussions - p. 75 15. 6 Conclusion - p. 108 16. Appendix. Modeling Reactive Gas–Particle Flows - p. 109 17. Acknowledgments - p. 121 18. Chapter Three: Simulation of Turbulent Coalescence and Breakage of Bubbles and Droplets in the Presence of Surfactants, Salts, and Contaminants - p. 124 19. Abstract - p. 125 20. 1 Introduction - p. 126 21. 2 Phenomenology of Fluid Particle Breakup - p. 127 22. 3 Phenomenology of Fluid Particle Coalescence - p. 131 23. 4 Analysis of Different Models for Fluid Particle Breakage Kernel - p. 136 24. 5 Models for the Daughter Size Distribution Function (DaSD) - p. 159 25. 6 Analysis of Different Models for Fluid Particle Coalescence Kernel - p. 163 26. 7 Conclusions - p. 182 27. Index - p. 189
Bridging Scales in Modelling and Simulating Reacting Flows, Part I , Volume 52 presents key methods to bridge scales in the simulation of reacting single phase flows. New sections in the updated release include topics such as quadrature-based moment methods for multiphase chemically reacting flows, the collaboration of experiments and simulations for the development of predictive models, a simulation of turbulent coalescence and breakage of bubbles and droplets in the presence of surfactants, a section on salts and contaminants, and information on the numerical simulation of reactive flows.
1. 1 Introduction - p. 2 2. 2 Quadrature-Based Moment Methods - p. 12 3. 3 Kinetic-Based Finite-Volume Methods - p. 17 4. 4 Application to Turbulent Reacting Flows - p. 22 5. 5 Application to the Population Balance Equation for Fine Particles - p. 30 6. 6 Application to the Kinetic Equation for Gas–Particle Flows - p. 33 7. 7 Concluding Remarks - p. 46 8. Chapter Two: Numerical Simulation of Multiphase Reactive Flows - p. 50 9. Abstract - p. 51 10. 1 Introduction - p. 55 11. 2 Brief Description of the Experimental Campaign - p. 57 12. 3 Modeling Description - p. 59 13. 4 Numerical Simulations - p. 65 14. 5 Results and Discussions - p. 75 15. 6 Conclusion - p. 108 16. Appendix. Modeling Reactive Gas–Particle Flows - p. 109 17. Acknowledgments - p. 121 18. Chapter Three: Simulation of Turbulent Coalescence and Breakage of Bubbles and Droplets in the Presence of Surfactants, Salts, and Contaminants - p. 124 19. Abstract - p. 125 20. 1 Introduction - p. 126 21. 2 Phenomenology of Fluid Particle Breakup - p. 127 22. 3 Phenomenology of Fluid Particle Coalescence - p. 131 23. 4 Analysis of Different Models for Fluid Particle Breakage Kernel - p. 136 24. 5 Models for the Daughter Size Distribution Function (DaSD) - p. 159 25. 6 Analysis of Different Models for Fluid Particle Coalescence Kernel - p. 163 26. 7 Conclusions - p. 182 27. Index - p. 189
