A two‐time‐level semi‐Lagrangian global spectral model
By C. Temperton, M. Hortal, A. Simmons. 2001
157 citations recorded by the source corpus.
Subfields: Atmospheric Science, Environmental Engineering, Global and Planetary Change
View Paper: https://www.semanticscholar.org/paper/2bcb12eaee77a102d86018cd3e5f47924cfd3105
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
In Atmospheric Science
- David L. Williamson
- Sungsu Park
- Richard B. Neale
- Andrew Gettelman
- Martin Leutbecher
- Andrew Staniforth
- Peter H. Lauritzen
- F. Molteni
In Environmental Engineering
- Martin Leutbecher
- Tim N. Palmer
- John Thuburn
- Andrew Staniforth
- J. Vivoda
- K. Yessad
- J. Geleyn
- Pierre Bénard
In Global and Planetary Change
- David L. Williamson
- Sungsu Park
- Richard B. Neale
- Andrew Gettelman
- Martin Leutbecher
- Peter H. Lauritzen
- F. Molteni
- J. Richter
Citations in the corpus
- An inherently mass‐conserving semi‐implicit semi‐Lagrangian discretization of the deep‐atmosphere global non‐hydrostatic equations (2014, methodology): “Developing the shallow-atmosphere rotation matrix approaches of Côté (1988) and Temperton et al. (2001), Staniforth et al. (2010) show how, within a deep-atmosphere context, this issue can be addressed by defining a rotation matrix M, the elements of which depend on the particular coordinate…”
- Horizontal grids for global weather and climate prediction models: a review (2012, methodology): “The spectral method can be adapted to use a reduced Gaussian grid (Temperton et al., 2001) whilst avoiding most of the issues of reduced lat–lon grids mentioned above.”
- Dynamical kernel of the Aladin–NH spectral limited‐area model: Revised formulation and sensitivity experiments (2010, methodology): “The 2-TL SL time discretization follows that of the IFS/ARPEGE model (Temperton et al., 2001) and uses the so-called ‘SETTLS’ time extrapolation (Hortal, 2002).”
- Climate model configurations of the ECMWF Integrated Forecasting System (ECMWF-IFS cycle 43r1) for HighResMIP (2018, background): “…on a hydrostatic, semi-Lagrangian, semi-implicit dynamical core with computations alternated between spectral and reduced Gaussian grid-point representations each time step (Hortal and Simmons, 1991; Hortal, 2002; Ritchie et al., 1995; Simmons et al., 1989; Temperton, 1991; Temperton et al., 2001).”
- 20-km-Mesh Global Climate Simulations Using JMA-GSM Model —Mean Climate States— (2006, methodology): “Furthermore, a two-time-level semiLagrangian scheme has been introduced instead of a three-time-level scheme, which provides a doubling of efficiency in principle (Temperton et al. 2001; Hortal 2002; Yoshimura and Matsumura 2005).”
- Tropospheric chemistry in the integrated forecasting system of ECMWF (2014, methodology): “At the start of the time step, the three-dimensional advection of the tracers mass mixing ratios is simulated by the SL method as described in Temperton et al. (2001) and Hortal (2002).”
- Description of the NCAR Community Atmosphere Model (CAM 3.0) (2004, background): “In addition Hortal’s modification [Temperton et al., 2001] is included, in which d dt [ − ( psB ∂T ∂p )”
- A new dynamical core for the Met Office's global and regional modelling of the atmosphere (2005, methodology): “The case for using the deep-atmosphere equations is discussed by White and Bromley (1995) and White et al. (2005), and primarily amounts to the desirability of retaining a complete representation of the Coriolis force.”
- Ensemble forecasting (2008, methodology): “The numerical weather prediction model used for all forecasts is a two-time-level semi-Lagrangian global spectral model [33].”