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E-grāmata: Lagrangian Transport in Geophysical Jets and Waves: The Dynamical Systems Approach

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This book provides an accessible introduction to a new set of methods for the analysis of Lagrangian motion in geophysical flows. These methods were originally developed in the abstract mathematical setting of dynamical systems theory, through a geometric approach to differential equations. Despite the recent developments in this field and the existence of a substantial body of work on geophysical fluid problems in the dynamical systems and geophysical literature, this is the first introductory text that presents these methods in the context of geophysical fluid flow. The book is organized into seven chapters; the first introduces the geophysical context and the mathematical models of geophysical fluid flow that are explored in subsequent chapters. The second and third cover the simplest case of steady flow, develop basic mathematical concepts and definitions, and touch on some important topics from the classical theory of Hamiltonian systems. The fundamental elements and methods of Lagrangian transport analysis in time-dependent flows that are the main subject of the book are described in the fourth, fifth, and sixth chapters. The seventh chapter gives a brief survey of some of the rapidly evolving research in geophysical fluid dynamics that makes use of this new approach. Related supplementary material, including a glossary and an introduction to numerical methods, is given in the appendices.This book will prove useful to graduate students, research scientists, and educators in any branch of geophysical fluid science in which the motion and transport of fluid, and of materials carried by the fluid, is of interest. It will also prove interesting and useful to the applied mathematicians who seek an introduction to an intriguing and rapidly developing area of geophysical fluid dynamics. The book was jointly authored by a geophysical fluid dynamicist, Roger M. Samelson of the College of Oceanic and Atmospheric Sciences at Oregon State University, USA and an applied mathematician, Stephen Wiggins of the School of Mathematics, University of Bristol, UK.

Written by a specialist in geophysical fluid dynamics and an applied mathematician, this is the first accessible introduction to a new set of methods for analysing Lagrangian motion in geophysical flows. Early chapters establish context and fundamental mathematical concepts and definitions, explore simple cases of steady flow, and touch on important topics from the classical theory of Hamiltonian systems. The main body of the book examines elements and methods of Lagrangian transport analysis in time-dependent flows. A concluding chapter surveys research in geophysical fluid dynamics that makes use of this new approach. Supplementary material is provided in the appendices. The book will appeal to graduate students, research scientists, and educators in any branch of geophysical science in which the motion and transport of fluid, and of materials carried by the fluid, is of interest. It will also interest applied mathematicians seeking an introduction to this area of geophysical fluid dynamics.

Recenzijas

From the reviews:









"A strong understanding of Lagrangian approaches to the transport and stirring of fluid often benefits from mental visualization. One must picture diverging fluid and evolving material curves that deform and tangle about each other. A successful introduction to this subject should facilitate this description, and this fine monograph by Roger Samelson and Steve Wiggins does so effectively. The book is written primarily for students and researchers in the geosciences." (Larry Pratt, SIAM Review, Vol. 49 (4), 2007)



"Samelson and Wiggins aim to provide an accessible introduction to modern mathematical techniques to explore transport and exchange in geophysical flows. The book is very well structured. Each chapter has a good introduction and concludes with a good summary. The book undoubtedly reads well. The four appendices provide interesting extra information. The two page index is adequate. Over nine pages of references ensures the bibliography provides valuable pointers into recent research. In summary: lovely material, well written ." (Anthony John Roberts, Mathematical Reviews, Issue 2008 f)



"The purpose of the monograph is to explore some of the new insights into Lagrangian motion in geophysical flows followed from such approach and to present an accessible introduction to the basic elements of some of these methods. The monograph will be useful for applied mathematicians, especially working in geophysical fluid dynamics." (Boris V. Loginov, Zentralblatt MATH, Vol. 1132 (10), 2008)

Preface vii
1 Introduction 1(16)
1.1 Trajectories and Transport in Geophysical Fluid Dynamics
1(3)
1.2 Incompressible Two-Dimensional Flow
4(3)
1.3 The Streamfunction
7(1)
1.4 Meandering Jets
8(2)
1.5 A Kinematic Traveling Wave Model
10(2)
1.6 Critical Lines and Cellular Flow
12(1)
1.7 The Onset of Fluid Exchange
13(1)
1.8 Notes
14(3)
2 Steadily Translating Waves and Meanders 17(12)
2.1 The Comoving Frame
17(1)
2.2 Stagnation Points
18(1)
2.3 Linearization near Stagnation Points
19(1)
2.4 Trajectories of Linearizations
20(2)
2.5 The Traveling Wave: Linearizations
22(1)
2.6 Material Curves and Invariant Subspaces
23(2)
2.7 Material Manifolds of Stagnation Points
25(1)
2.8 The Traveling Wave: Material Manifolds
26(1)
2.9 Notes
27(2)
3 Integrability of Lagrangian Motion 29(14)
3.1 Scalar Advection: The Material Derivative
29(1)
3.2 Linear Flows
30(2)
3.3 Closed Material Curves and Integrability
32(2)
3.4 Action-Angle Variables
34(1)
3.5 Near-Integrable Fluid Flow
35(1)
3.6 The KAM Theorem
36(2)
3.7 Chaos, Integrability, and Advected Scalar Fields
38(3)
3.8 Notes
41(2)
4 Fluctuating Waves and Meanders 43(18)
4.1 Time-Dependent Flow in the Comoving Frame
43(1)
4.2 Linearized Motion: A Time-Dependent Example
44(1)
4.3 Linearization About a Trajectory
45(2)
4.4 Lyapunov Exponents
47(2)
4.5 Exponential Dichotomies
49(3)
4.6 Hyperbolic Trajectories
52(2)
4.7 Material Manifolds of Hyperbolic Trajectories
54(2)
4.8 Hyperbolic Trajectories for Near-Integrable Flows
56(1)
4.9 The Traveling Wave
57(2)
4.10 Notes
59(2)
5 Material Manifolds, Flow Regimes, and Fluid Exchange 61(14)
5.1 Fluid Exchange and Lobes
61(2)
5.2 Transient Disturbances
63(6)
5.3 Oscillatory Disturbances
69(4)
5.4 Summary
73(1)
5.5 Notes
74(1)
6 Lobe Transport and Flux 75(10)
6.1 Regime and Lobe Boundaries
75(1)
6.2 The Traveling Wave with Time-Periodic Disturbance
76(3)
6.3 General Oscillatory Disturbances
79(2)
6.4 Transient Disturbances
81(1)
6.5 Lobe Area and Flux Formulas
82(2)
6.6 Notes
84(1)
7 Transport and Dynamics 85(20)
7.1 Dynamics of Geophysical Flows
85(2)
7.2 Barotropic Jets
87(4)
7.3 Baroclinic Jets
91(2)
7.4 Boundary Currents and Recirculations
93(6)
7.5 Advanced Topics
99(4)
7.6 Summary
103(2)
A Mathematical Properties of Fluid Trajectories 105(2)
B Action-Angle Coordinates 107(8)
C Numerical Methods 115(6)
D Finite-Time Material Manifolds: An Example 121(4)
Glossary 125(10)
References 135(10)
Index 145