DCMIP2016: a review of non-hydrostatic dynamical core design and intercomparison of participating models
Atmospheric dynamical cores are a fundamental component of global atmospheric modeling systems and are responsible for capturing the dynamical behavior of the Earth's atmosphere via numerical integration of the Navier–Stokes equations. These systems have existed in one form or another for ov...
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Format: | Article |
Language: | English |
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Copernicus Publications
2017-12-01
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Series: | Geoscientific Model Development |
Online Access: | https://www.geosci-model-dev.net/10/4477/2017/gmd-10-4477-2017.pdf |
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author | P. A. Ullrich C. Jablonowski J. Kent P. H. Lauritzen R. Nair K. A. Reed C. M. Zarzycki D. M. Hall D. Dazlich R. Heikes C. Konor D. Randall T. Dubos Y. Meurdesoif X. Chen L. Harris C. Kühnlein V. Lee A. Qaddouri C. Girard M. Giorgetta D. Reinert J. Klemp S.-H. Park W. Skamarock H. Miura T. Ohno R. Yoshida R. Walko A. Reinecke K. Viner |
author_facet | P. A. Ullrich C. Jablonowski J. Kent P. H. Lauritzen R. Nair K. A. Reed C. M. Zarzycki D. M. Hall D. Dazlich R. Heikes C. Konor D. Randall T. Dubos Y. Meurdesoif X. Chen L. Harris C. Kühnlein V. Lee A. Qaddouri C. Girard M. Giorgetta D. Reinert J. Klemp S.-H. Park W. Skamarock H. Miura T. Ohno R. Yoshida R. Walko A. Reinecke K. Viner |
author_sort | P. A. Ullrich |
collection | DOAJ |
description | Atmospheric dynamical cores are a fundamental component of global atmospheric
modeling systems and are responsible for capturing the dynamical behavior of
the Earth's atmosphere via numerical integration of the Navier–Stokes
equations. These systems have existed in one form or another for over half of
a century, with the earliest discretizations having now evolved into a
complex ecosystem of algorithms and computational strategies. In essence, no
two dynamical cores are alike, and their individual successes suggest that no
perfect model exists. To better understand modern dynamical cores, this paper
aims to provide a comprehensive review of 11 non-hydrostatic dynamical
cores, drawn from modeling centers and groups that participated in the 2016
Dynamical Core Model Intercomparison Project (DCMIP) workshop and summer
school. This review includes a choice of model grid, variable placement,
vertical coordinate, prognostic equations, temporal discretization, and the
diffusion, stabilization, filters, and fixers employed by each system. |
first_indexed | 2024-12-12T13:56:38Z |
format | Article |
id | doaj.art-6cbb11c760cf4f6392aed2497c365100 |
institution | Directory Open Access Journal |
issn | 1991-959X 1991-9603 |
language | English |
last_indexed | 2024-12-12T13:56:38Z |
publishDate | 2017-12-01 |
publisher | Copernicus Publications |
record_format | Article |
series | Geoscientific Model Development |
spelling | doaj.art-6cbb11c760cf4f6392aed2497c3651002022-12-22T00:22:27ZengCopernicus PublicationsGeoscientific Model Development1991-959X1991-96032017-12-01104477450910.5194/gmd-10-4477-2017DCMIP2016: a review of non-hydrostatic dynamical core design and intercomparison of participating modelsP. A. Ullrich0C. Jablonowski1J. Kent2P. H. Lauritzen3R. Nair4K. A. Reed5C. M. Zarzycki6D. M. Hall7D. Dazlich8R. Heikes9C. Konor10D. Randall11T. Dubos12Y. Meurdesoif13X. Chen14L. Harris15C. Kühnlein16V. Lee17A. Qaddouri18C. Girard19M. Giorgetta20D. Reinert21J. Klemp22S.-H. Park23W. Skamarock24H. Miura25T. Ohno26R. Yoshida27R. Walko28A. Reinecke29K. Viner30University of California, Davis, Davis, CA, USAUniversity of Michigan, Ann Arbor, MI, USAUniversity of South Wales, Pontypridd, Wales, UKNational Center for Atmospheric Research, Boulder, CO, USANational Center for Atmospheric Research, Boulder, CO, USAStony Brook University, Stony Brook, NY, USANational Center for Atmospheric Research, Boulder, CO, USAUniversity of Colorado, Boulder, Boulder, CO, USAColorado State University, Fort Collins, CO, USAColorado State University, Fort Collins, CO, USAColorado State University, Fort Collins, CO, USAColorado State University, Fort Collins, CO, USALaboratoire de Météorologie Dynamique, Institut Pierre-Simon Laplace (IPSL), Paris, FranceLaboratoire de Météorologie Dynamique, Institut Pierre-Simon Laplace (IPSL), Paris, FranceGeophysical Fluid Dynamics Laboratory (GFDL), Princeton, NJ, USAGeophysical Fluid Dynamics Laboratory (GFDL), Princeton, NJ, USAEuropean Center for Medium-Range Weather Forecasting (ECMWF), Reading, UKEnvironment and Climate Change Canada (ECCC), Dorval, Québec, CanadaEnvironment and Climate Change Canada (ECCC), Dorval, Québec, CanadaEnvironment and Climate Change Canada (ECCC), Dorval, Québec, CanadaMax Planck Institute for Meteorology, Hamburg, GermanyDeutscher Wetterdienst (DWD), Offenbach am Main, GermanyNational Center for Atmospheric Research, Boulder, CO, USAYonsei University, Seoul, South KoreaNational Center for Atmospheric Research, Boulder, CO, USAUniversity of Tokyo, Bunkyo, Tokyo, JapanJapan Agency for Marine-Earth Science and Technology, Yokohama, Kanagawa, JapanRIKEN AICS/Kobe University, Kobe, JapanUniversity of Miami, Coral Gables, FL, USANaval Research Laboratory, Monterey, CA, USANaval Research Laboratory, Monterey, CA, USAAtmospheric dynamical cores are a fundamental component of global atmospheric modeling systems and are responsible for capturing the dynamical behavior of the Earth's atmosphere via numerical integration of the Navier–Stokes equations. These systems have existed in one form or another for over half of a century, with the earliest discretizations having now evolved into a complex ecosystem of algorithms and computational strategies. In essence, no two dynamical cores are alike, and their individual successes suggest that no perfect model exists. To better understand modern dynamical cores, this paper aims to provide a comprehensive review of 11 non-hydrostatic dynamical cores, drawn from modeling centers and groups that participated in the 2016 Dynamical Core Model Intercomparison Project (DCMIP) workshop and summer school. This review includes a choice of model grid, variable placement, vertical coordinate, prognostic equations, temporal discretization, and the diffusion, stabilization, filters, and fixers employed by each system.https://www.geosci-model-dev.net/10/4477/2017/gmd-10-4477-2017.pdf |
spellingShingle | P. A. Ullrich C. Jablonowski J. Kent P. H. Lauritzen R. Nair K. A. Reed C. M. Zarzycki D. M. Hall D. Dazlich R. Heikes C. Konor D. Randall T. Dubos Y. Meurdesoif X. Chen L. Harris C. Kühnlein V. Lee A. Qaddouri C. Girard M. Giorgetta D. Reinert J. Klemp S.-H. Park W. Skamarock H. Miura T. Ohno R. Yoshida R. Walko A. Reinecke K. Viner DCMIP2016: a review of non-hydrostatic dynamical core design and intercomparison of participating models Geoscientific Model Development |
title | DCMIP2016: a review of non-hydrostatic dynamical core design and intercomparison of participating models |
title_full | DCMIP2016: a review of non-hydrostatic dynamical core design and intercomparison of participating models |
title_fullStr | DCMIP2016: a review of non-hydrostatic dynamical core design and intercomparison of participating models |
title_full_unstemmed | DCMIP2016: a review of non-hydrostatic dynamical core design and intercomparison of participating models |
title_short | DCMIP2016: a review of non-hydrostatic dynamical core design and intercomparison of participating models |
title_sort | dcmip2016 a review of non hydrostatic dynamical core design and intercomparison of participating models |
url | https://www.geosci-model-dev.net/10/4477/2017/gmd-10-4477-2017.pdf |
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