Moving Particle Semi-implicit Method: Recent Developments and Applications offers detailed step-by-step guidance for advanced numerical models in the MPS method. With a strong focus on overcoming challenges, such as low improving accuracy and numerical stability, the book also examines the applications of MPS, particularly within nuclear engineering. Beginning with an introduction to grid-based and particle-based numerical methods, the book then reviews the original MPS method. Following chapters examine how the original method can be improved, covering topics such as improved discretization models, stabilization methods, multiphase flow and turbulence models, and improving efficiency.
Closing chapters analyze applications in nuclear and ocean engineering, as well as considering future developments and implications. This book is an essential read for graduates, researchers and engineers interested in nuclear engineering and computational fluid dynamics.
1. Chapter one. Introduction - p. 1 2. Chapter two. Original moving particle semi-implicit method - p. 7 3. Chapter three. Improved discretization models - p. 21 4. Chapter four. Stabilization methods - p. 53 5. Chapter five. Boundary conditions - p. 71 6. Chapter six. Surface tension models - p. 97 7. Chapter seven. Multiphase flow and turbulence models - p. 117 8. Chapter eight. Heat transfer models - p. 143 9. Chapter nine. Efficiency improvement - p. 165 10. Chapter ten. Applications in nuclear engineering - p. 189 11. Chapter eleven. Applications in ocean engineering - p. 215 12. Chapter Twelve. Summary and outlook - p. 241 13. Index - p. 245
Moving Particle Semi-implicit Method: Recent Developments and Applications offers detailed step-by-step guidance for advanced numerical models in the MPS method. With a strong focus on overcoming challenges, such as low improving accuracy and numerical stability, the book also examines the applications of MPS, particularly within nuclear engineering. Beginning with an introduction to grid-based and particle-based numerical methods, the book then reviews the original MPS method. Following chapters examine how the original method can be improved, covering topics such as improved discretization models, stabilization methods, multiphase flow and turbulence models, and improving efficiency.
Closing chapters analyze applications in nuclear and ocean engineering, as well as considering future developments and implications. This book is an essential read for graduates, researchers and engineers interested in nuclear engineering and computational fluid dynamics.
1. Chapter one. Introduction - p. 1 2. Chapter two. Original moving particle semi-implicit method - p. 7 3. Chapter three. Improved discretization models - p. 21 4. Chapter four. Stabilization methods - p. 53 5. Chapter five. Boundary conditions - p. 71 6. Chapter six. Surface tension models - p. 97 7. Chapter seven. Multiphase flow and turbulence models - p. 117 8. Chapter eight. Heat transfer models - p. 143 9. Chapter nine. Efficiency improvement - p. 165 10. Chapter ten. Applications in nuclear engineering - p. 189 11. Chapter eleven. Applications in ocean engineering - p. 215 12. Chapter Twelve. Summary and outlook - p. 241 13. Index - p. 245
