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El. knyga: Advanced Numerical Models For Simulating Tsunami Waves And Runup

Edited by (Univ Of Southern California, Usa), Edited by (Oregon State Univ, Usa), Edited by (Cornell University, Usa)
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This review volume is divided into two parts. The first part includes five review papers on various numerical models. Pedersen provides a brief but thorough review of the theoretical background for depth-integrated wave equations, which are employed to simulate tsunami runup. LeVeque and George describe high-resolution finite volume methods for solving the nonlinear shallow water equations. The focus of their discussion is on the applications of these methods to tsunami runup.In recent years, several advanced 3D numerical models have been introduced to the field of coastal engineering to calculate breaking waves and wave-structure interactions. These models are still under development and are at different stages of maturity. Rogers and Dalrymple discuss the Smooth Particles Hydrodynamics (SPH) method, which is a meshless method. Wu and Liu present their Large Eddy Simulation (LES) model for simulating the landslide-generated waves. Finally, Frandsen introduces the lattice Boltzmann method with the consideration of a free surface.The second part of the review volume contains the descriptions of the benchmark problems with eleven extended abstracts submitted by the workshop participants. All these papers are compared with their numerical results with benchmark solutions.
Preface v
A Dedication to Dr. Cliff J. Astill ix
Part 1: Review Papers
Modeling Runup with Depth Integrated Equation Models
3(40)
G. Pedersen
High-Resolution Finite Volume Methods for the Shallow Water Equations with Bathymetry and Dry States
43(32)
R. J. LeVeque
D. L. George
SPH Modeling of Tsunami Waves
75(26)
B. D. Rogers
R. A. Dalrymple
A Large Eddy Simulation Model for Tsunami and Runup Generated by Landslides
101(62)
T.-R. Wu
P. L.-F. Liu
Free-Surface Lattice Boltzmann Modeling in Single Phase Flows
163(60)
J. B. Frandsen
Part 2: Extended Abstracts
Benchmark Problems
223(8)
P. L.-F. Liu
H. Yeh
C. E. Synolakis
Tsunami Runup onto a Plane Beach
231(6)
Z. Kowalik
J. Horrillo
E. Kornkven
Nonlinear Evolution of Long Waves over a Sloping Beach
237(6)
U. Kanoglu
Amplitude Evolution and Runup of Long Waves; Comparison of Experimental and Numerical Data on a 3D Complex Topography
243(6)
A. C. Yalciner
F. Imamura
C. E. Synolakis
Numerical Simulations of Tsunami Runup onto a Three-Dimensional Beach with Shallow Water Equations
249(6)
X. Wang
P. L.-F. Liu
A. Orfila
3D Numerical Simulation of Tsunami Runup onto a Complex Beach
255(6)
T. Kakinuma
Evaluating Wave Propagation and Inundation Characteristics of the Most Tsunami Model over a Complex 3D Beach
261(8)
A. Chawla
J. Borrero
V. Titov
Tsunami Generation and Runup Due to a 2D Landslide
269(4)
Z. Kowalik
J. Horrillo
E. Kornkven
Boussinesq Modeling of Landslide-Generated Waves and Tsunami Runup
273(6)
O. Nwogu
Numerical Simulation of Tsunami Runup onto a Complex Beach with a Boundary-Fitting Cell System
279(4)
H. Yasuda
A 1-D Lattice Boltzmann Model Applied to Tsunami Runup onto a Plane Beach
283(28)
J. B. Frandsen
A Lagrangian Model Applied to Runup Problems
311(8)
G. Pedersen
Appendix Phase-Averaged Towed PIV Measurements for Regular Head Waves in a Model Ship Towing Tank 319
J. Longo
J. Shao
M. Irvine
L. Gui
F. Stern