Drifter‐derived maps of lateral diffusivity in the Pacific and Atlantic Oceans in relation to surface circulation patterns
By V. Zhurbas, I. Oh. 2004
143 citations recorded by the source corpus.
Subfields: Atmospheric Science, Global and Planetary Change, Oceanography
View Paper: https://www.semanticscholar.org/paper/1d15935b2d22b5bcec5d378b71524eb6e2f16c71
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
- Ryan Abernathey
- B. Fox‐Kemper
- S. Griffies
- L. Zanna
- C. Jongedijk
- Claire B Paris-Limouzy
- M. Thiel
- Robert Marsh
In Global and Planetary Change
- Ryan Abernathey
- B. Fox‐Kemper
- S. Griffies
- M. Thiel
- E. van Sebille
- Claire B Paris-Limouzy
- L. Zanna
- P. Berloff
In Oceanography
- Ryan Abernathey
- B. Fox‐Kemper
- M. Thiel
- Claire B Paris-Limouzy
- S. Griffies
- L. Zanna
- P. Berloff
- C. Jongedijk
Citations in the corpus
- Statistics from Lagrangian observations (2008, methodology): “This might be several times the integral time scale, TL.7 Zhurbas and Oh (2004) used the method to map the diffusivity for the surface North Atlantic (Fig.”
- The physical oceanography of the transport of floating marine debris (2020, methodology): “Some studies have been carried out to determine the horizontal diffusion coefficient for specific regions (e.g. Zhurbas 2004, Rühs et al 2018), and it might be worthwhile to use this approach in simulations of plastic particle dispersion.”
- Lagrangian ocean analysis: Fundamentals and practices (2018, methodology): “Using binning to estimate spatially-dependent eddy 945 diffusivities (‘pseudo-Eulerian eddy diffusivity maps’) and other parameters 946 (maps of eddy time and length scales) has been widely used in observational 947 Lagrangian analysis (15, 164, 239, 187, 302), as well as in particle simulations 948”