Free-Surface Flow: Computational Methods presents a detailed analysis of numerical schemes for shallow-water waves. It includes practical applications for the numerical simulation of flow and transport in rivers and estuaries, the dam-break problem and overland flow. Closure models for turbulence, such as Reynolds-Averaged Navier-Stokes and Large Eddy Simulation are presented, coupling the aforementioned surface tracking techniques with environmental fluid dynamics. While many computer programs can solve the partial differential equations describing the dynamics of fluids, many are not capable of including free surfaces in their simulations.

This guideline is one of a series produced by the British Fluid Power Association's Technical committees. These committees are manned by acknowledged experts from industry who give their time voluntarily. As such this document and others form part of a valuable library of technical information. In addition to being a superb source of reference to engineers, students may also use this guideline to form part of a study package when completing one of the many BFPA or other awarding body courses.

The book is structured so as to give an understanding of: . The basic types of components and their operational principles. . The way in which circuits can be arranged using available components to provide a range of functional outputs. . The analytical methods that are used in system design and performance prediction. Fluid power systems are manufactured by many organisations for a very wide range of applications, which often embody differing arrangements of components to fulfil a given task. Hydraulic components are manufactured to provide the control functions required for the operation of systems, each manufacturer using different approaches in the design of components of any given type. As a consequence, the resulting proliferation of both components and systems can, to the uninitiated, be an obstacle to the understanding of their principle of operation. Components are arranged to provide various generic circuits, which can be used in the design of systems so as to suit the functional characteristics of the particular application.

Hydraulic gates are utilized in multiple capacities in modern society. As such, the failure of these gates can have disastrous consequences, and it is imperative to develop new methods to avoid these occurrences. Dynamic Stability of Hydraulic Gates and Engineering for Flood Prevention is a critical reference source containing scholarly research on engineering techniques and mechanisms to decrease the failure rate of hydraulic gates. Including a range of perspectives on topics such as fluid dynamics, vibration mechanisms, and flow stability, this book is ideally designed for researchers, academics, engineers, graduate students, and practitioners interested in the study of hydraulic gate structure.