Seamless Poleward Atmospheric Energy Transports and Implications for the Hadley Circulation
By Kevin E. Trenberth, D. Stepaniak. 2003
241 citations recorded by the source corpus.
Subfields: Atmospheric Science, Global and Planetary Change, Oceanography
View Paper: https://www.semanticscholar.org/paper/081250df8396403f6d8e28a5d514f4b5198b7329
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
- M. Zelinka
- P. O’Gorman
- Tapio Schneider
- D. Hartmann
- X. Levine
- John T. Fasullo
- Kevin E. Trenberth
- J. Kiehl
In Global and Planetary Change
- M. Zelinka
- P. O’Gorman
- D. Hartmann
- Tapio Schneider
- John T. Fasullo
- Kevin E. Trenberth
- X. Levine
- J. Kiehl
In Oceanography
- Jeffrey H. Yin
- M. Blackburn
- D. Hartmann
- P. O’Gorman
- X. Levine
- David J. Brayshaw
- B. Hoskins
- John T. Fasullo
Citations in the corpus
- The Storm-Track Response to Idealized SST Perturbations in an Aquaplanet GCM (2008, background): “Trenberth and Stepaniak (2003) and Kim and Lee (2001), among others, also emphasize the role of the midlatitude eddies in driving the Hadley cell as part of a “seamless” transport of energy poleward from the equator.”
- Earth's Global Energy Budget (2009, background): “Major recent advances in unders tand ing the energy budget have been provided by satellite data and globally gridded reanalyses (e.g., Trenberth et al. 2001; Trenberth and Stepaniak 2003a,b, 2004).”
- The Annual Cycle of the Energy Budget. Part I: Global Mean and Land–Ocean Exchanges (2008, background): “…and kinetic energy transports combine and, in instances, mutually compensate to result in a seamless poleward transport of energy that belies the complexity of the Unauthenticated | Downloaded 07/23/22 09:11 AM UTC physical mechanisms of which it is composed (Trenberth and Stepaniak 2003a,b).”
- The large‐scale energy budget of the Arctic (2007, methodology): “It also fosters comparisons with previous studies for this domain [e.g., Nakamura and Oort, 1988; Overland and Turet, 1994; Rogers et al., 2001; Trenberth and Stepaniak, 2003; Semmler et al., 2005].”
- Climate Feedbacks and Their Implications for Poleward Energy Flux Changes in a Warming Climate (2011, background): “…of TOA energy surplus do not warm continuously while regions of energy deficit cool continuously; rather the atmosphere and oceans transport energy from surplus to deficit regions (e.g., Vonder Haar and Oort 1973; Trenberth and Solomon 1994; Trenberth and Caron 2001; Trenberth and Stepaniak 2003).”
- Evaluation of AERONET precipitable water vapor versus microwave radiometry, GPS, and radiosondes at ARM sites (2014, background): “In the lower troposphere, condensation of water vapor into liquid provides latent heating which dominates the structure of tropospheric diabatic heating [Trenberth and Stepaniak, 2003a, 2003b].”
- A consistent poleward shift of the storm tracks in simulations of 21st century climate (2005, methodology): “[13] A preliminary analysis of the energy budget, using the methods of Trenberth and Stepaniak [2003] , suggests that the poleward shift of baroclinicity is largely maintained by anomalous energy transports in the Ferrel cell, which shifts poleward in response to anomalous momentum fluxes in the st”
- Storm track response to ocean fronts in a global high-resolution climate model (2014, background): “These eddies can also support low frequency events such as blocking (Hoskins 1983; Trenberth 1986), and act to transmit heat polewards as part of the Earth’s global energy balance (Trenberth and Caron 2001; Trenberth and Stepaniak 2003).”
- WATER VAPOR AND THE DYNAMICS OF CLIMATE CHANGES (2009, background): “In the present climate, this is about half of the total atmospheric energy flux in midlatitudes [Pierrehumbert, 2002; Trenberth and Stepaniak, 2003b], indicating a significant role for water vapor in extratropical dynamics.”