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551.466 --- 627.223.6 --- Sea waves and tides --- Waves. Volume and force. Breakers. Surf. Swash. Backwash. Counter-currents. Tidal waves (long waves) --- 627.223.6 Waves. Volume and force. Breakers. Surf. Swash. Backwash. Counter-currents. Tidal waves (long waves) --- 551.466 Sea waves and tides
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627.223 --- 627.235 --- 627.235 Breakwaters. Moles. Harbour dams. Harbour groynes. Jetties. Deep-water outworks --- Breakwaters. Moles. Harbour dams. Harbour groynes. Jetties. Deep-water outworks --- 627.223 Sea currents and tides --- Sea currents and tides --- 627.223.6 --- waterbouw --- CZM --- Waves. Volume and force. Breakers. Surf. Swash. Backwash. Counter-currents. Tidal waves (long waves) --- Coastal zone management. --- Shore protection. --- 627.223.6 Waves. Volume and force. Breakers. Surf. Swash. Backwash. Counter-currents. Tidal waves (long waves) --- Coastal engineering --- kust --- Engineering --- Coastal zone management --- Shore protection --- Coastal engineering. --- Littoral --- Aménagement
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This book is intended as an introduction to classical water wave theory for the college senior or first year graduate student. The material is self-contained; almost all mathematical and engineering concepts are presented or derived in the text, thus making the book accessible to practicing engineers as well. The book commences with a review of fluid mechanics and basic vector concepts. The formulation and solution of the governing boundary value problem for small amplitude waves are developed and the kinematic and pressure fields for short and long waves are explored. The transformation of waves due to variations in depth and their interactions with structures are derived. Wavemaker theories and the statistics of ocean waves are reviewed. The application of the water particle motions and pressure fields are applied to the calculation of wave forces on small and large objects. Extension of the linear theory results to several nonlinear wave properties is presented. Each chapter concludes with a set of homework problems exercising and sometimes extending the material presented in the chapter. An appendix provides a description of nine experiments which can be performed, with little additional equipment, in most wave tank facilities. [Publisher]
627.223.6 --- 532.517 --- 532.517 Liquid motion according to type of flow --- Liquid motion according to type of flow --- 627.223.6 Waves. Volume and force. Breakers. Surf. Swash. Backwash. Counter-currents. Tidal waves (long waves) --- Waves. Volume and force. Breakers. Surf. Swash. Backwash. Counter-currents. Tidal waves (long waves) --- Fluid mechanics --- Water waves --- Breakers --- Surface waves (Water) --- Hydrodynamics --- Waves --- Wind waves --- Hydromechanics --- Continuum mechanics --- golfmechanica --- golven --- kust --- waterbouw --- Fluid mechanics. --- Water waves. --- Vagues --- Fluides, Mécanique des --- Vagues. --- Fluides, Mécanique des. --- Mécanique des fluides. --- Mécanique des fluides.
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627.223 --- 627.223.6 --- 627.5 --- 627.235 --- Coastal engineering --- 627.235 Breakwaters. Moles. Harbour dams. Harbour groynes. Jetties. Deep-water outworks --- Breakwaters. Moles. Harbour dams. Harbour groynes. Jetties. Deep-water outworks --- 627.5 Other waterway protection and improvement works. Dykes. Coast protection. Land drainage and reclamation --- Other waterway protection and improvement works. Dykes. Coast protection. Land drainage and reclamation --- 627.223.6 Waves. Volume and force. Breakers. Surf. Swash. Backwash. Counter-currents. Tidal waves (long waves) --- Waves. Volume and force. Breakers. Surf. Swash. Backwash. Counter-currents. Tidal waves (long waves) --- 627.223 Sea currents and tides --- Sea currents and tides --- Shore protection. --- Coastal zone management --- Shore protection --- Engineering --- Beach erosion --- Coast protection --- Coast protective works --- Hydraulic engineering --- Reclamation of land --- Coast ecosystem management --- Coastal ecosystem management --- Coastal management --- Coastal resource management --- Coastal resources management --- Coastal zone ecosystem management --- Coasts --- CRM (Coastal resource management) --- Zone management, Coastal --- Ecosystem management --- Natural resources --- Regional planning --- Prevention --- Management --- Coastal engineering. --- Coastal zone management.
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Juxtaposing the garments on the catwalk and in lookbooks with the original research material and with finished illustrations allows for a new perspective on the working methods of leading international designers and on the role of different media in the creation of their work, making the book a fascinating resource for both students and designers. Numerous leading designers, including John Galliano, Dries Van Noten, Antonio Marras for Kenzo, Yohji Yamamoto and Vivienne Westwood, are interviewed alongside their sketchbooks, discussing the roles they play in evolution of their work, and how they inform and encourage their creative processes. The result is in an inspirational overview of cutting-edge design today.
6 7/8 (six and seven eighths) --- 684.94 --- 742 --- 907.7 --- Aggugini, Kinder --- Aksu, Bora --- Anderson, J.W --- Basso & Brooke --- Blaak --- Black, Graeme --- Boudicca --- Braganza, Jean-Pierre --- Butler, Fred --- Carpentier, Benoît --- Chanel --- Cook, Emma --- Cooperative designs --- Duckie Brown --- E. Tautz (Tautz, E.) --- Euler, Carola --- Fast, Mark --- Felder, Annette --- Felder, Daniela --- Felder-Felder (Felder.Felder) --- Galliano (Galliano, John) --- Hamilton, Tim --- Howell, Margaret --- Jenden, Nathan --- Jensen, Peter --- Kenzo --- Kishimoto, Eley --- Lagerfeld, Karl --- Lauterbach, Tillmann --- Leder, Frank --- Lutz --- Marchand Drapier --- Marras, Antonio --- Massey, Carolyn --- McWilliam, Aimee --- Molyneaus, Amy --- Morrow, Hamish --- Nicoll, Richard --- PPQ --- Parker, Percy --- Seow, Jonathan --- Sinha, Fiona --- Sinha-Stanic --- Soar, Tim --- Stanic, Aleksandar --- Stoldal, Siv --- Swash --- Swash, Sarah --- Temperley, Alice --- Throup, Aitor --- Van Beirendonck, Walter --- Van Noten, Dries --- Walker, Deryck --- Westwood, Vivienne --- Williamson, Matthew --- Woods&woods --- Yamamoto, Yohji --- Yamanaka, Toshio --- Yasuhiro, Mihara --- Yousefzada, Osman --- Yurkievich, Gaspard --- huisstijl --- merken --- mode-ontwerpers (modeontwerpers) --- modeltekenen --- het boek, boekillustratie --- praktijk van schilderen en tekenen, genres (landschap, mode, portret) --- geschiedenis, klederdrachten, bijzondere onderwerpen
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Storm tides, surges, and waves associated with typhoons/tropical cyclones/hurricanes are the most severe threats to coastal zones, nearshore waters, and navigational safety. Therefore, predicting typhoon/tropical cyclone/hurricane-induced storm tides, surges, waves, and coastal erosion is essential for reducing the loss of human life and property and mitigating coastal disasters. There is still a growing demand for novel techniques that could be adopted to resolve the complex physical processes of storm tides, surges, waves, and coastal erosion, even if many studies on the hindcasting/prediction/forecasting of typhoon-driven storm tides, surges, waves, and also morphology evolution have been carried out through numerical models in the last decade. This Special Issue intends to collect the latest studies on storm tide, surge, and wave modeling and analysis utilizing dynamic and statistical models and artificial intelligence approaches to improve our simulating and analytic capabilities and our understanding of storm tides, surges, and waves. Five high-quality papers have been accepted for publication in this Special Issue; these papers cover the application and development of many high-end techniques for storm tides, surges, waves, and on-site investigation of coastal erosion and accretion.
Technology: general issues --- History of engineering & technology --- typhoon wave --- sea surface temperature --- WAVEWATCH-III --- sbPOM --- depth-induced wave breaking --- wave-breaking formulation --- wave-breaking criterion --- shallow nearshore waters --- three-dimensional Bragg resonance --- regular waves --- random waves --- high-order spectral (HOS) method --- Gaussian spectrum --- V-shaped undulating bottom --- multivariate extreme value --- coastal modeling --- SWAN --- SWASH-2DH --- Corsica --- return level --- total water level --- erosion and accretion --- cross-shore profile evolution --- Lanyang River estuary --- limit of estuarine sediment transport --- northeastern coastal waters of Taiwan --- typhoon wave --- sea surface temperature --- WAVEWATCH-III --- sbPOM --- depth-induced wave breaking --- wave-breaking formulation --- wave-breaking criterion --- shallow nearshore waters --- three-dimensional Bragg resonance --- regular waves --- random waves --- high-order spectral (HOS) method --- Gaussian spectrum --- V-shaped undulating bottom --- multivariate extreme value --- coastal modeling --- SWAN --- SWASH-2DH --- Corsica --- return level --- total water level --- erosion and accretion --- cross-shore profile evolution --- Lanyang River estuary --- limit of estuarine sediment transport --- northeastern coastal waters of Taiwan
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Storm tides, surges, and waves associated with typhoons/tropical cyclones/hurricanes are the most severe threats to coastal zones, nearshore waters, and navigational safety. Therefore, predicting typhoon/tropical cyclone/hurricane-induced storm tides, surges, waves, and coastal erosion is essential for reducing the loss of human life and property and mitigating coastal disasters. There is still a growing demand for novel techniques that could be adopted to resolve the complex physical processes of storm tides, surges, waves, and coastal erosion, even if many studies on the hindcasting/prediction/forecasting of typhoon-driven storm tides, surges, waves, and also morphology evolution have been carried out through numerical models in the last decade. This Special Issue intends to collect the latest studies on storm tide, surge, and wave modeling and analysis utilizing dynamic and statistical models and artificial intelligence approaches to improve our simulating and analytic capabilities and our understanding of storm tides, surges, and waves. Five high-quality papers have been accepted for publication in this Special Issue; these papers cover the application and development of many high-end techniques for storm tides, surges, waves, and on-site investigation of coastal erosion and accretion.
Technology: general issues --- History of engineering & technology --- typhoon wave --- sea surface temperature --- WAVEWATCH-III --- sbPOM --- depth-induced wave breaking --- wave-breaking formulation --- wave-breaking criterion --- shallow nearshore waters --- three-dimensional Bragg resonance --- regular waves --- random waves --- high-order spectral (HOS) method --- Gaussian spectrum --- V-shaped undulating bottom --- multivariate extreme value --- coastal modeling --- SWAN --- SWASH-2DH --- Corsica --- return level --- total water level --- erosion and accretion --- cross-shore profile evolution --- Lanyang River estuary --- limit of estuarine sediment transport --- northeastern coastal waters of Taiwan --- n/a
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Storm tides, surges, and waves associated with typhoons/tropical cyclones/hurricanes are the most severe threats to coastal zones, nearshore waters, and navigational safety. Therefore, predicting typhoon/tropical cyclone/hurricane-induced storm tides, surges, waves, and coastal erosion is essential for reducing the loss of human life and property and mitigating coastal disasters. There is still a growing demand for novel techniques that could be adopted to resolve the complex physical processes of storm tides, surges, waves, and coastal erosion, even if many studies on the hindcasting/prediction/forecasting of typhoon-driven storm tides, surges, waves, and also morphology evolution have been carried out through numerical models in the last decade. This Special Issue intends to collect the latest studies on storm tide, surge, and wave modeling and analysis utilizing dynamic and statistical models and artificial intelligence approaches to improve our simulating and analytic capabilities and our understanding of storm tides, surges, and waves. Five high-quality papers have been accepted for publication in this Special Issue; these papers cover the application and development of many high-end techniques for storm tides, surges, waves, and on-site investigation of coastal erosion and accretion.
typhoon wave --- sea surface temperature --- WAVEWATCH-III --- sbPOM --- depth-induced wave breaking --- wave-breaking formulation --- wave-breaking criterion --- shallow nearshore waters --- three-dimensional Bragg resonance --- regular waves --- random waves --- high-order spectral (HOS) method --- Gaussian spectrum --- V-shaped undulating bottom --- multivariate extreme value --- coastal modeling --- SWAN --- SWASH-2DH --- Corsica --- return level --- total water level --- erosion and accretion --- cross-shore profile evolution --- Lanyang River estuary --- limit of estuarine sediment transport --- northeastern coastal waters of Taiwan --- n/a
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Due to the ongoing rise in sea level and increases in extreme wave climates, which consequently change the wave climate, coastal structures such as sea dikes and seawalls are exposed to severe and frequent sea storms. Even though much research related to wave–structure interactions has been carried out, it remains one of the most important and challenging topics in the field of coastal engineering. The recent publications in the Special Issue “Wave Interactions with Coastal Structures” in the Journal of Marine Science and Engineering include a wide range of research, including theoretical/mathematical, experimental, and numerical work related to the interaction between sea waves and coastal structures. These publications address conventional coastal hard structures in deep water zones as well as those located in shallow water zones, such as wave overtopping over shallow foreshores with apartment buildings on dikes. The research findings presented help to improve our knowledge of hydrodynamic processes, and the new approaches and developments presented here will be good benchmarks for future work.
Technology: general issues --- History of engineering & technology --- shallow waters --- wave energy --- coastal erosion --- beach restoration --- submerged breakwaters --- protected nourishments --- wave overtopping --- coastal safety --- flow velocity --- flow depth --- sea dikes --- overtopping reduction --- force reduction --- oblique waves --- storm return wall --- EurOtop manual --- validation --- wave modelling --- shallow foreshore --- dike-mounted vertical wall --- wave impact loads --- OpenFOAM --- average overtopping discharge --- individual volume --- overtopping flow depth --- overtopping flow velocity --- promenade --- vertical wall --- SWASH --- fluid-structure interaction --- waves --- smoothed particle hydrodynamics --- SPH --- Pont del Petroli --- storm Gloria --- inter-model comparison --- DualSPHysics --- wave pressure --- caisson breakwater --- stability --- RANS model --- solitary wave --- fully nonlinear wave --- three-dimensional wave --- partially submerged cylinder --- hollow circular cylinder --- tsunami --- wave --- bore --- flooding --- debris --- numerical modeling --- SPH-FEM coupling --- coastal structures --- shallow waters --- wave energy --- coastal erosion --- beach restoration --- submerged breakwaters --- protected nourishments --- wave overtopping --- coastal safety --- flow velocity --- flow depth --- sea dikes --- overtopping reduction --- force reduction --- oblique waves --- storm return wall --- EurOtop manual --- validation --- wave modelling --- shallow foreshore --- dike-mounted vertical wall --- wave impact loads --- OpenFOAM --- average overtopping discharge --- individual volume --- overtopping flow depth --- overtopping flow velocity --- promenade --- vertical wall --- SWASH --- fluid-structure interaction --- waves --- smoothed particle hydrodynamics --- SPH --- Pont del Petroli --- storm Gloria --- inter-model comparison --- DualSPHysics --- wave pressure --- caisson breakwater --- stability --- RANS model --- solitary wave --- fully nonlinear wave --- three-dimensional wave --- partially submerged cylinder --- hollow circular cylinder --- tsunami --- wave --- bore --- flooding --- debris --- numerical modeling --- SPH-FEM coupling --- coastal structures
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Due to the ongoing rise in sea level and increases in extreme wave climates, which consequently change the wave climate, coastal structures such as sea dikes and seawalls are exposed to severe and frequent sea storms. Even though much research related to wave–structure interactions has been carried out, it remains one of the most important and challenging topics in the field of coastal engineering. The recent publications in the Special Issue “Wave Interactions with Coastal Structures” in the Journal of Marine Science and Engineering include a wide range of research, including theoretical/mathematical, experimental, and numerical work related to the interaction between sea waves and coastal structures. These publications address conventional coastal hard structures in deep water zones as well as those located in shallow water zones, such as wave overtopping over shallow foreshores with apartment buildings on dikes. The research findings presented help to improve our knowledge of hydrodynamic processes, and the new approaches and developments presented here will be good benchmarks for future work.
Technology: general issues --- History of engineering & technology --- shallow waters --- wave energy --- coastal erosion --- beach restoration --- submerged breakwaters --- protected nourishments --- wave overtopping --- coastal safety --- flow velocity --- flow depth --- sea dikes --- overtopping reduction --- force reduction --- oblique waves --- storm return wall --- EurOtop manual --- validation --- wave modelling --- shallow foreshore --- dike-mounted vertical wall --- wave impact loads --- OpenFOAM --- average overtopping discharge --- individual volume --- overtopping flow depth --- overtopping flow velocity --- promenade --- vertical wall --- SWASH --- fluid–structure interaction --- waves --- smoothed particle hydrodynamics --- SPH --- Pont del Petroli --- storm Gloria --- inter-model comparison --- DualSPHysics --- wave pressure --- caisson breakwater --- stability --- RANS model --- solitary wave --- fully nonlinear wave --- three-dimensional wave --- partially submerged cylinder --- hollow circular cylinder --- tsunami --- wave --- bore --- flooding --- debris --- numerical modeling --- SPH–FEM coupling --- coastal structures --- n/a --- fluid-structure interaction --- SPH-FEM coupling
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