Fluid Dynamics of Particles, Drops, and Bubbles
This book is a modern presentation of multiphase flow, from basic principles to state-of-the-art research. It explains dispersed fluid dynamics for bubbles, drops, or solid particles, incorporating detailed theory, experiments, simulations, and models while considering applications and recent cutting-edge advances. The book demonstrates the importance of multiphase flow in engineering and natural systems, considering particle size distributions, shapes, and trajectories as well as deformation of fluid particles and multiphase flow numerical methods. The scope of the book also includes coupling physics between particles and turbulence through dispersion and modulation, and specific phenomena such as gravitational settling and collisions for solid particles, drops, and bubbles. The eight course-based chapters feature over 100 homework problems, including theory-based and engineering application questions. The final three reference-based chapters provide a wide variety of particle point-force theories and models. The comprehensive coverage will give the reader a solid grounding for multiphase flow research and design, applicable to current and future engineering. This is an ideal resource for graduate students, researchers, and professionals.
- Features comprehensive coverage of the fundamentals of fluid mechanics of particles, with detailed theory as well as relevant applications, giving a full understanding of the subject
- Provides an up-to-date view of the field, encompassing recent developments, to guide the next generation of multiphase flow research and design
- Includes over eighty end-of-chapter problems, allowing the reader to confidently self-assess their learning
Product details
October 2023Hardback
9780521814362
534 pages
250 × 174 × 32 mm
1.2kg
Available
Table of Contents
- 1. Introduction to multiphase fluid dynamics
- 2. Single-phase flow equations and regimes
- 3. Governing equations for an isolated spherical particle
- 4. Particles sizes, shapes and trajectories
- 5. Coupling regimes for multiphase flow
- 6. Single-phase turbulent flow
- 7. Multiphase turbulent flow
- 8. Multiphase flow numerical approaches
- 9. Drag force on an isolated particle
- 10. Lift, added mass, and history forces on a particle
- 11. Particle interactions with walls and other particles.