This one–stop resource for students, instructors, and professionals goes beyond analytical solutions for irrotational fluids to provide practical answers to real–world problems involving complex boundaries. It offers extensive coverage of vorticity transport as well as computational methods for inviscid flows, and it provides a solid foundation for further studies in fluid dynamics.
Inviscid Incompressible Flow supplies a rigorous introduction to the continuum mechanics of fluid flows. It derives vector representation theorems, develops the vorticity transport theorem and related integral invariants, and presents theorems associated with the pressure field. This self–contained sourcebook describes both solution methods unique to two–dimensional flows and methods for axisymmetric and three–dimensional flows, many of which can be applied to two–dimensional flows as a special case. Finally, it examines perturbations of equilibrium solutions and ensuing stability issues.
Important features of this powerful, timely volume include:
- Focused, comprehensive coverage of inviscid incompressible fluids
- Four entire chapters devoted to vorticity transport and solution of vortical flows
- Theorems and computational methods for two–dimensional, axisymmetric, and three–dimensional flows
- A companion Web site containing subroutines for calculations in the book
- Clear, easy–to–follow presentation
Inviscid Incompressible Flow, the only all–in–one presentation available on this topic, is a first–rate teaching and learning tool for graduate– and senior undergraduate–level courses in inviscid fluid dynamics. It is also an excellent reference for professionals and researchers in engineering, physics, and applied mathematics.
Vectors and Tensors.
Kinematics of Fluid Motion.
Laws of Fluid Dynamics.
Dynamics of Discontinuity Surfaces.
Velocity Representations and Associated Theorems.
Vorticity Transport Theorems.
Two–Dimensional Potential Flows.
Forces on Bodies in Two–Dimensional Flows.
Two–Dimensional Flows with Vorticity.
Three–Dimensional Potential Flows.
Axisymmetric Vortex Flows.
Interfacial Wave Motion.
Stability of Fluid Flows.
Appendix A: Common Expressions in Orthogonal Curvilinear Coordinate Systems.