In a computational science, there can come a time when enough raw computational power is available to lift the science to a new level of fundamental understanding. Particularly in various subdisciplines of fluid dynamics, the complexity of the physical problems to be solved establishes a benchmark—a minimum need in computer resources. It is only recently that sufficient computing power has become available to allow significant leaps in the understanding of important phenomena. The rapid increase has been extraordinary over the last several decades, with a 10‐fold increase in the speed of computations in the 1970s and a 25‐fold increase in the 1960s. Today's supercomputer is a thousand times more powerful than those in existence in the early 1960s, when the first ocean model calculations were done.
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October 1987
October 01 1987
Computer Modeling in Physical Oceanography from the Global Circulation to Turbulence
Only with the recent generation of powerful supercomputers can more realistic ocean models be constructed to show oceanic circulation over many scales of motion—such as global, basin and mesoscale.
William R. Holland;
William R. Holland
National Center for Atmospheric Research, Boulder, Colorado
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James C. McWilliams
James C. McWilliams
National Center for Atmospheric Research, Boulder, Colorado
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Physics Today 40 (10), 51–57 (1987);
Citation
William R. Holland, James C. McWilliams; Computer Modeling in Physical Oceanography from the Global Circulation to Turbulence. Physics Today 1 October 1987; 40 (10): 51–57. https://doi.org/10.1063/1.881115
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