Modeling and Simulation of Sono-processes provides an overview of the mathematical modeling and numerical simulation as applied to sono-process-related phenomena, from the microscopic to the macroscopic scale, collecting information on this topic into one dedicated resource for the first time. It covers both fundamental and semi-empirical approaches and includes both physical and chemical effects.
Single acoustic cavitation bubble and bubble population-related aspects are modeled mathematically, and numerical simulation procedures and examples are presented. In addition, the procedure involving semi-empirical modeling of sonochemical activity and sonochemical reactors is demonstrated and ultrasound assisted processes (hybrid processes) are demonstrated including several case studies.
Modeling and Simulation of Sono-processes is written primarily for advanced graduates or early career researchers in physics, physical chemistry or mathematics who want to use mathematical modeling and numerical simulation of aspects related to acoustic cavitation bubble, bubble population, sonochemistry, sonochemical reactors and ultrasound-assisted processes.
1. Part I: Introduction to mathematical modeling and simulation of sono-processes - p. 1 2. Chapter 1. Fundamentals of acoustic cavitation, ultrasound-assisted processes, and sonochemistry - p. 3 3. Chapter 2. Basics and principles of fundamental and semiempirical modeling and simulation of sono processes - p. 19 4. Part II: Fundamental modeling of sono-processing: from the single bubble to bubble population - p. 33 5. Chapter 3. Acoustic wave propagation in liquid medium and damping mechanisms: modeling and simulation - p. 35 6. Chapter 4. Acoustic streaming: modeling and simulation - p. 59 7. Chapter 5. Nucleation of single acoustic cavitation bubble: modeling and simulation - p. 71 8. Chapter 6. Oscillation of single acoustic cavitation bubble: modeling and simulation - p. 91 9. Chapter 7. Cavitation bubble collapse dynamics near various boundaries based on Kelvin impulse theory - p. 109 10. Chapter 8. Thermodynamics of single acoustic cavitation bubble: modeling and simulation - p. 123 11. Chapter 9. Microstreaming from acoustic cavitation bubble: modeling and simulation - p. 140 12. Abstract - p. 140 13. Outline - p. 140 14. 9.1 Introduction - p. 140 15. 9.2 Methods - p. 142 16. 9.3 Calculations and expression of results - p. 151 17. 9.4 Microstreaming distribution outside suspended particles - p. 155 18. 9.5 Discussion and evaluation - p. 160 19. 9.6 Conclusion - p. 161 20. Acknowledgments - p. 161 21. Abbreviations and nomenclature - p. 161 22. References - p. 162 23. Chapter 10. Shockwave from acoustic cavitation bubble: modeling and simulation - p. 165 24. Chapter 11. Microjet from acoustic cavitation bubble: modeling and simulation - p. 175 25. Chapter 12. Sonochemistry and acoustic cavitation bubble: modeling and simulation - p. 185 26. Chapter 13. Sonoluminescence from acoustic cavitation bubble: modeling and simulation - p. 201 27. Chapter 14. Acoustic bubble population: modeling and simulation of the number density - p. 215 28. Chapter 15. Acoustic bubble cluster: modeling and simulation of dynamics, interaction, and coalescence - p. 227 29. Part III: Semi-empirical modeling of sono-processing: from experiments to mathematical models - p. 245 30. Chapter 16. Semiempirical modeling of acoustic bubble population - p. 247 31. Chapter 17. Acoustic bubble population: modeling and simulation of size distribution - p. 267 32. Chapter 18. Semiempirical modeling of sonochemical reactors - p. 277 33. Chapter 19. Semiempirical modeling of ultrasound-assisted separation - p. 299 34. Chapter 20. Semiempirical modeling of ultrasound-assisted synthesis - p. 316 35. Chapter 21. Sono-processes: quantitative metrics for efficiency evaluation - p. 337 36. Index - p. 377
Modeling and Simulation of Sono-processes provides an overview of the mathematical modeling and numerical simulation as applied to sono-process-related phenomena, from the microscopic to the macroscopic scale, collecting information on this topic into one dedicated resource for the first time. It covers both fundamental and semi-empirical approaches and includes both physical and chemical effects.
Single acoustic cavitation bubble and bubble population-related aspects are modeled mathematically, and numerical simulation procedures and examples are presented. In addition, the procedure involving semi-empirical modeling of sonochemical activity and sonochemical reactors is demonstrated and ultrasound assisted processes (hybrid processes) are demonstrated including several case studies.
Modeling and Simulation of Sono-processes is written primarily for advanced graduates or early career researchers in physics, physical chemistry or mathematics who want to use mathematical modeling and numerical simulation of aspects related to acoustic cavitation bubble, bubble population, sonochemistry, sonochemical reactors and ultrasound-assisted processes.
1. Part I: Introduction to mathematical modeling and simulation of sono-processes - p. 1 2. Chapter 1. Fundamentals of acoustic cavitation, ultrasound-assisted processes, and sonochemistry - p. 3 3. Chapter 2. Basics and principles of fundamental and semiempirical modeling and simulation of sono processes - p. 19 4. Part II: Fundamental modeling of sono-processing: from the single bubble to bubble population - p. 33 5. Chapter 3. Acoustic wave propagation in liquid medium and damping mechanisms: modeling and simulation - p. 35 6. Chapter 4. Acoustic streaming: modeling and simulation - p. 59 7. Chapter 5. Nucleation of single acoustic cavitation bubble: modeling and simulation - p. 71 8. Chapter 6. Oscillation of single acoustic cavitation bubble: modeling and simulation - p. 91 9. Chapter 7. Cavitation bubble collapse dynamics near various boundaries based on Kelvin impulse theory - p. 109 10. Chapter 8. Thermodynamics of single acoustic cavitation bubble: modeling and simulation - p. 123 11. Chapter 9. Microstreaming from acoustic cavitation bubble: modeling and simulation - p. 140 12. Abstract - p. 140 13. Outline - p. 140 14. 9.1 Introduction - p. 140 15. 9.2 Methods - p. 142 16. 9.3 Calculations and expression of results - p. 151 17. 9.4 Microstreaming distribution outside suspended particles - p. 155 18. 9.5 Discussion and evaluation - p. 160 19. 9.6 Conclusion - p. 161 20. Acknowledgments - p. 161 21. Abbreviations and nomenclature - p. 161 22. References - p. 162 23. Chapter 10. Shockwave from acoustic cavitation bubble: modeling and simulation - p. 165 24. Chapter 11. Microjet from acoustic cavitation bubble: modeling and simulation - p. 175 25. Chapter 12. Sonochemistry and acoustic cavitation bubble: modeling and simulation - p. 185 26. Chapter 13. Sonoluminescence from acoustic cavitation bubble: modeling and simulation - p. 201 27. Chapter 14. Acoustic bubble population: modeling and simulation of the number density - p. 215 28. Chapter 15. Acoustic bubble cluster: modeling and simulation of dynamics, interaction, and coalescence - p. 227 29. Part III: Semi-empirical modeling of sono-processing: from experiments to mathematical models - p. 245 30. Chapter 16. Semiempirical modeling of acoustic bubble population - p. 247 31. Chapter 17. Acoustic bubble population: modeling and simulation of size distribution - p. 267 32. Chapter 18. Semiempirical modeling of sonochemical reactors - p. 277 33. Chapter 19. Semiempirical modeling of ultrasound-assisted separation - p. 299 34. Chapter 20. Semiempirical modeling of ultrasound-assisted synthesis - p. 316 35. Chapter 21. Sono-processes: quantitative metrics for efficiency evaluation - p. 337 36. Index - p. 377
