http://www.loc.gov/mods/v3 http://www.loc.gov/standards/mods/v3/mods-3-2.xsd
The second of two volumes concentrating on the dynamics of slender bodies within or containing axial flow, Volume 2 covers fluid-structure interactions relating to shells, cylinders and plates containing or immersed in axial flow, as well as slender structures subjected to annular and leakage flows. This volume has been thoroughly updated to reference the latest developments in the field, with a continued emphasis on the understanding of dynamical behaviour and analytical methods needed to provide long-term solutions and validate the latest computational methods and codes, with increased coverage of computational techniques and numerical methods, particularly for the solution of non-linear three-dimensional problems.
Front Cover; Fluid-Structure Interactions: Slender Structures and Axial Flow; Copyright; Contents; Preface to the First Edition; Preface to the Second Edition; Chapter 1: Cylindrical Shells Containing or Immersed in Flow: Advanced Topics and Applications; 1.1 Introductory Comments; 1.2 Coaxial Shells; 1.2.1 Vibrations of fluid-coupled coaxial shells; 1.2.2 Coaxial shells with supported ends subjected to flow; 1.2.2(a) Inviscid model; 1.2.2(b) Steady viscous effects; 1.2.2(c) Unsteady viscous effects; 1.2.2(d) Nonlinear effects; 1.2.2(e) Experiments.
1.2.3 Coaxial cantilevered shells subjected to flow1.2.3(a) Analytical model of Païdoussis, Nguyen & Misra; 1.2.3(b) Experiments; 1.2.3(c): CFD model of Nguyen et al.; 1.2.4 The leakage flow approximation; 1.2.5 Wave propagation and simplified stability theory; 1.2.6 Practical experiences; 1.2.7 Concluding remarks; 1.3 Swirling Flow and Rotofluidelasticity; 1.3.1 Introductory remarks and literature review; 1.3.2. Rotating shell conveying co-rotating fluid; 1.3.3 The Intense Neutron Generator system; 1.3.4 Boundary-layer effects for small Ro; 1.4 Turbulence-Induced Vibration.
1.4.1 General formulation1.4.2 Response to an arbitrary random pressure field; 1.4.3 Response to a boundary-layer pressure field; 1.4.4 Sample results; 1.4.5 The joint acceptance approach; 1.4.6 Concluding remarks; 1.5 Collapsible Tubes/Pliable Shells; 1.5.1 Introduction; 1.5.2 Pressure waves in horizontal systems; 1.5.3 Physiological systems; 1.5.4 Steady flow; 1.5.4(a) The Starling resistor; 1.5.4(b) Flow limitation and elastic jumps; 1.5.5 Flow-induced oscillation; 1.5.5(a) The physical characteristics of the oscillation; 1.5.5(b) Analytical models; 1.5.5(c) Chaotic oscillations.
1.5.5(d) Rational models sloshing, slamming, and other mechanisms; 1.5.6 Distensible tubes; 1.6 Other Applications; 1.6.1 General applications; 1.6.2 Internal-annular flow cases; 1.6.3 Aeronautical applications; 1.6.4 Shell-type Coriolis mass-flow meters; 1.6.5 Micro- and nanotube applications; 1.6.6 Sky dancers; Chapter 2: Cylinders in Axial Flow I; 2.1 Introduction; 2.2 Linear Equations of Motion; 2.2.1 General formulation; 2.2.2 Solitary cylinder in unconfined flow; 2.2.3 Cylinder in a cluster or in confined flow; 2.2.4 Boundary conditions; 2.2.5 Dimensionless parameters.
2.2.6 Similarities to internal flow2.2.7 Methods of solution; 2.2.7(a) Systems with classical boundary conditions; 2.2.7(b) Cantilevered system with tapered free end; 2.2.8 Numerical studies; 2.3 Linear Dynamics; 2.3.1 Linear dynamical behaviour; 2.3.1(a) Basic dynamics for cylinders with supported ends; 2.3.1(b) Basic dynamics for cantilevered cylinders; 2.3.1(c) Effect of system parameters; cylinders with supported ends; 2.3.1(d) Effect of system parameters; cantilevered cylinders; 2.3.1(e) Divergence of cantilevered cylinders; analytical solution; 2.3.1(f) Pinned-free cylinders.
Includes bibliographical references and index.