Insights from Laboratory Experiments and Numerical Simulations /
First Statement of Responsibility
Thomas von Larcher, Paul D. Williams, editors
PHYSICAL DESCRIPTION
Specific Material Designation and Extent of Item
xiii, 353 pages, [16] pages of plates :
Other Physical Details
illustrations (some color), graphs ;
Dimensions
29 cm
SERIES
Series Title
Geophysical monograph,
Volume Designation
205
ISSN of Series
0065-8448 ;
INTERNAL BIBLIOGRAPHIES/INDEXES NOTE
Text of Note
Includes bibliographical references and index
CONTENTS NOTE
Text of Note
Introduction: Simulations of natural flows in the laboratory and on a computer -- Section I: Baroclinic-driven flows: General circulation of planetary atmospheres: insights from rotating annulus and related experiments -- Primary flow transitions in the baroclinic annulus: Prandtl number effects -- Amplitude vacillation in baroclinic flows -- Section II: Balanced and unbalanced flows: Rotation effects on wall-bounded flows: some laboratory experiments -- Altimetry in a GFD laboratory and flows on the polar Beta-plane -- Instabilities of shallow-water flows with vertical shear in the rotating annulus -- Laboratory experiments on flows over bottom topography -- Direct numerical simulations of laboratory-scale stratified turbulence -- Section III: Atmospheric Flows: Numerical simulation (DNS, LES) of geophysical laboratory experiments: quasi-biennial oscillation (QBO) analogue and simulations toward Madden-Julian Oscillation (MJO) analogue -- Internal waves in laboratory experiments -- Frontal instabilities at density-shear interfaces in rotating two-layer stratified fluids -- Section IV: Oceanic Flows: Large-amplitude coastal shelf waves -- Laboratory experiments with abrupt thermohaline transitions and oscillations -- Oceanic island wake flows in the laboratory -- Section V: Lagrangian methods in experimental fluid mechanics -- A high-resolution method for direct numerical simulation of instabilities and transitions in a baroclinic cavity -- Orthogonal decomposition methods to analyze PIV, LDV, and thermography data of thermally driven rotating annulus laboratory experiments