Page 22 - Fluid-Structure Interactions Slender Structure and Axial Flow (Volume 1)
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INTRODUCTION                               5

               dynamical behaviour as obtained via linear and nonlinear analysis, putting the emphasis
               on physical understanding.
                 Chapters 3 and 4 deal with the dynamics, mainly the stability, of straight (as opposed
               to curved) pipes conveying fluid: both  for the inherently conservative system (both ends
               supported)  and  for  the  nonconservative one  (e.g.  when  one  end  of  the  pipe  is  free).
               The  fundamentals of  system behaviour  are  presented  in  Chapter 3  in  terms  of  linear
               theory,  together  with  the  pertinent  experimental research. Chapter 4  treats  some  ‘less
               usual’ systems: pipes sucking fluid, nonuniform pipes, parametric resoriances, and so on,
               and  also contains a  section on  applications. The nonlinear dynamics of  the  system, as
               well  as chaotic oscillations, are presented in  Chapter 5, wherein may  also be  found an
               introduction to the methods of  modern nonlinear dynamics theory.
                 The ideas and  methods developed and  illustrated in  Chapters 3-5  are of  importance
               throughout the rest of the book, since the fundamental dynamical behaviour of the systems
               in the other chapters will be explained by  analogy or reference to that presented in these
               three chapters; hence, even if the reader has no special interest in the dynamics of pipes
               conveying fluid, reading Chapter 3 is sine qua non  for the proper understanding of  the
               rest of the book.
                 Chapter 6 deals with the dynamics of curved pipes conveying fluid, which, surprisingly
               perhaps, is distinct from and analytically more complex than that of straight pipes.



                1.4  CONTENTS OF VOLUME 2+
               The pipes considered in Chapters 3-6 are sufficiently thick-walled to suppose that ideally,
               their cross-section remains circular while in motion, so that the dynamics may be treated
               via beam theory. In Chapter 7, thin-walled pipes are considered, which must be treated as
               thin cylindrical shells. Turbulence-induced vibrations, as well as physiological applications
               are discussed at the end of this chapter.
                 Chapters 8 and 9 deal with the dynamics of cylinders in axial flow: isolated cylinders
               in unconfined or confined flow  in Chapter 8, and cylinders in clusters in Chapter 9. The
               stability and turbulence-induced vibrations of such systems are also discussed. Engineering
               applications are also presented: e.g. submerged towed cylinders, and clustered cylinders
               such  as  those  used  in  nuclear reactor  fuel  bundles  and  tube-in-shell heat  exchangers.
               Chapter 10 deals with plates in axial flow.
                 Chapter  11 treats a special, technologically important, case of the material in Chapters 7
               and 8: a single cylinder or shell in a rigid or flexible tube, subjected to annular flow in the
               generally narrow passage in-between. This chapter also closes with discussion of  some
               engineering applications.
                 Chapter  12 presents in outline some topics involving axial flow not treated in detail in
               this book, and Chapter 13 contains some general conclusions and remarks.









                 ‘Volume  2 is scheduled to  appear later, but soon after Volume  1.
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