Dynamics of the Upper Oceanic Layers in Terms of Surface Quasigeostrophy Theory
By G. Lapeyre, Patrice Klein. 2006
374 citations recorded by the source corpus.
Subfields: Atmospheric Science, Global and Planetary Change, Oceanography
View Paper: https://www.semanticscholar.org/paper/1f3c278aec97db98855d4c7789d22702c16e121a
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
- James C. McWilliams
- Raffaele Ferrari
- M. Molemaker
- J. Callies
- Xavier Capet
- Patrice Klein
- M. Nikurashin
- Alexander F. Shchepetkin
In Global and Planetary Change
- James C. McWilliams
- Raffaele Ferrari
- M. Molemaker
- J. Callies
- Xavier Capet
- Alexander F. Shchepetkin
- G. Flierl
- M. Nikurashin
In Oceanography
- James C. McWilliams
- Raffaele Ferrari
- M. Molemaker
- J. Callies
- Xavier Capet
- A. Mahadevan
- Alexander F. Shchepetkin
- Patrice Klein
Citations in the corpus
- Submesoscale currents in the ocean (2016, background): “QG has a subclass especially relevant to near-boundary regions, Surface QG (SQG), based on an idealization of qqg(x) that is zero in the fluid interior, so its evolution is controlled by a horizontal advection–diffusion equation for horizontal buoyancy with gradients ∇hb on the boundary4 [32,33].”
- Mesoscale to Submesoscale Transition in the California Current System. Part II: Frontal Processes (2008, methodology): “submesoscale transition in our simulations [as well as in previous ones by Lapeyre and Klein (2006)]: energiza-”
- Three‐dimensional reconstruction of oceanic mesoscale currents from surface information (2008, methodology): “This approach has been already tested in idealized numerical simulations [Lapeyre and Klein, 2006; LaCasce and Mahadevan, 2006], in situ measurements [LaCasce and Mahadevan, 2006] and remotely sensed data [Isern-Fontanet et al.”
- Suppression of Eddy Diffusivity across Jets in the Southern Ocean (2010, background): “Lapeyre and Klein (2006) have recently shown that QG models with potential vorticity (PV) gradients con-fined to the surface reproduce quite accurately the vertical and horizontal structure of ocean eddies in the upper few hundred meters of the oceans.”
- Do Altimeter Wavenumber Spectra Agree with the Interior or Surface Quasigeostrophic Theory (2008, methodology): “An alternate dynamical explanation, based on the SQG theory (Blumen, 1978; Held et al., 1995), has been recently revisited to describe the dynamics of the upper oceanic layers ( Lapeyre and Klein, 2006a; LaCasce and Mahadevan, 2006; Isern et al., 2006).”
- Oceanic Restratification Forced by Surface Frontogenesis (2006, background): “This kind of balance was revealed by Lapeyre and Klein (2005) to be quite relevant for the mesoscale and submesoscale dynamics of the upper oceanic layers.”
- Interpreting Energy and Tracer Spectra of Upper-Ocean Turbulence in the Submesoscale Range (1–200 km) (2013, methodology): “The spectral surface QG–streamfunction ^ c is then found by inverting the zero interior-PV condition (e.g., Blumen 1978; Lapeyre and Klein 2006) Nk h e Nk h z / f (A2) and the kinetic and potential energy spectra are These spectra are shown in Fig.”
- Reconstructing the Ocean's Interior from Surface Data (2013, methodology): “An alternate approach was suggested by Lapeyre and Klein (2006).”