4 edition of Laboratory modeling of interactions between waves and flows in the upper ocean found in the catalog.
Laboratory modeling of interactions between waves and flows in the upper ocean
by U.S. Dept. of Commerce, National Oceanic and Atmospheric Administration, Oceanic and Atmospheric Research Laboratories, Environmental Technology Laboratory, For sale by the National Technical Information Service in Boulder, Colo, [Springfield, Va
Written in English
|Other titles||Interactions between waves and flows in the upper ocean|
|Statement||L.A. Ostrovsky, editor|
|Series||NOAA technical memorandum OAR ETL -- 299|
|Contributions||Ostrovskiĭ, L. A, Environmental Technology Laboratory (Oceanic and Atmospheric Research Laboratories)|
|The Physical Object|
|Pagination||iv, 45 p.|
|Number of Pages||45|
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Get this from a library. Laboratory modeling of interactions between waves and flows in the upper ocean. [L A Ostrovskiĭ; Environmental Technology Laboratory (Oceanic and Atmospheric Research Laboratories);].
Laboratory experiments allow a wide range of parameters and flows to be examined in detail and much of the insight into the behavior of overflows has come from laboratory modeling. Experiments are conducted in tanks mounted on rotating tables to simulate the effects of the Earth's rotation (see Fig.
6 for an example). Typically the scale of the laboratory tanks is of the. Basic waves To describe ocean waves, we use a right-handed, Cartesian coordinate system in which the z-axis points upward.
The x- and y-axes point in horizontal directions at right angles. In the state of rest, the ocean surface coincides with z= 0.
When waves are present, the surface is located at z= (x;y;t), where tis time. The ocean bottom is. The mathematical modeling of the interaction of water waves with porous coastal structures has continuously been among the most relevant challenges.
A third‐generation numerical wave model to compute random, short‐crested waves in coastal regions with shallow water and ambient currents (Simulating Waves Nearshore (SWAN)) has been developed, implemented, and by: Vol.The Cenozoic Southern Ocean: Tectonics, Sedimentation, and Climate Change Between Australia and Antarctica.
Vol.The State of the Planet: Frontiers and Challenges in Geophysics. Vol.Continent-Ocean Interactions Within East Asian Marginal Seas. Vol.Mid-Ocean Ridges: Hydrothermal Interactions Between the Lithosphere. It will create in the upper ocean sublayers where the energy balance takes different forms.
Thus, the theoretical model of the ocean upper layer dynamics has to include equations which describe the mean flow, turbulent kinetic energy, interactions between turbulence and surface waves, wave breaking, and turbulent mixing by: The energy, momentum, and mass-flux exchanges between surface waves and underlying Eulerian mean flows are considered, and terms in addition to the classical wave “radiation stress” are by: This is a revision of a previous paper dealing with three-dimensional wave-current interactions.
It is shown that the continuity and momentum equations in the absence of surface waves can include waves after the addition of three-dimensional radiation stress terms, a fairly simple alteration for numerical ocean circulation by: planetary waves (PW), and (c) global-scale inertio gravity waves.
Numerical experiments are discussed that illuminate the influence of GW filtering and nonlinear interactions between DT, PW, and zonal mean variations. Keywords: Theoretical modeling, Middle atmosphere dynamics, Gravity wave interactions, Migrating.
James M. Kaihatu currently works at the Zachry Department of Civil and Environmental Engineering, Texas A&M University. James does research in. The purpose of this review is to highlight progress in unraveling carbon cycling dynamics across the continuum of landscapes, inland waters, coastal oceans, and the atmosphere.
Earth systems are intimately interconnected, yet most biogeochemical studies focus on specific components in isolation. The movement of water drives the carbon cycle, and, as such, inland waters provide Cited by: Ocean Wave Measurement and Analysis: Proceedings of the Fourth International Symposium, WAVES September, San Francisco, California, Volume 2 Billy L.
Edge, James Michael Hemsley American Society of Civil Engineers, - Lakes - pages. Imagine that you wanted to build a faster sailboat because you wanted to win a sailing race (SF Fig. If you changed the length of your boat hull, the size of its sail, the shape of its sail and the shape of the bow all at the same time and your boat went faster, you would not know which of these factors impacted the speed.
Co-authored with Syukuro Manabe of Princeton University, EOAS faculty member Anthony Broccoli’s new book “documents Manabe’s scientific journey to a deeper understanding of climate change.” By Craig Winston The timing could not be better.
The Democratic political debates are ripe with discussion of global warming. Climate activists continue their protests. "Air-Ice-Ocean Interaction will be a valuable reference for Artic and Antarctic researchers–be they observers, numerical modelers, or theoreticians.
It will also be an excellent resource for the Earth sciences graduate students. His monograph would Brand: Springer-Verlag New York. The laboratory data of Hansen and Svendsen  for setup and cross‐shore currents, driven by regular waves breaking on a planar beach, are used to set the roller model's fitting coefficient.
The model is then validated utilizing five additional laboratory data sets found in the literature. Read "Theory and Applications of Ocean Surface Waves Part 1: Linear AspectsPart 2: Nonlinear Aspects" by C Mei Chiang available from Rakuten Kobo. This book is an expanded version of The Applied Dynamics of Ocean Surface Waves.
It presents theoretical topics on ocean Brand: World Scientific Publishing Company. Differences in land and sea surface temperature and heat flux result in direct, thermally driven wind systems over a spectrum of temporal and spatial scales.
The best known among these are the mesoscale land and sea (lake) breeze circulation systems (see. Functional Biology Laboratory.
Topics to be investigated will include: ocean formation and destruction, sediments, ocean circulation, waves, tides, estuaries, life in the oceans, hydrothermal vents, coral reefs, fisheries, marine pollution, and climate change.
Study of processes influencing energy and material flows, interactions and. The influence of breaking waves on the dynamics of the upper ocean is estimated using the concept of an energy balance between the wind and waves.
The rate of energy release from wave breaking is calculated by the statistical model proposed by Longuet-Higgins ().Cited by: 9.This research involves laboratory experiments to measure the Lagrangian displacement and velocity of fluid particles in breaking waves.
The data will then be used to develop and parameterize a stochastic ordinary differential equation, within the class of Langevin equations, to describe the Lagrangian motion of the fluid elements.This book set is a revised version of the edition of Theory and Applications of Ocean Surface Waves.
It presents theoretical topics on ocean wave dynamics, including basic principles and applications in coastal and offshore engineering as well as coastal oceanography. Advanced analytical and numerical techniques are demonstrated.5/5(1).