One dynamically downscaled IPCC simulation (WRF - MPI - ECHAM5) has a robust representation of
Pacific sea surface temperature variability in the future projection period up to 2040, but the relationship to enhancement of precipitation extremes is not as clear as in observations.
Yeh, S. - W., and B.P. Kirtman, 2004: Decadal North
Pacific sea surface temperature variability and the associated global climate anomalies in a coupled GCM.
Not exact matches
El Niño is a weather pattern characterized by a periodic fluctuation in
sea surface temperature and air pressure in the
Pacific Ocean, which causes climate
variability over the course of years, sometimes even decades.
At this time the E-W
sea surface temperature gradients in both the
Pacific and Indian Oceans increased [29], [31] intensifying the E-W moisture transport in the tropics, which greatly increased rainfall
variability both on a precession and an ENSO (El Niño Southern Oscillation) time - scales.
The evolution of El Niño - Southern Oscillation (ENSO)
variability can be characterized by various ocean - atmosphere feedbacks, for example, the influence of ENSO related
sea surface temperature (SST)
variability on the low - level wind and
surface heat fluxes in the equatorial tropical
Pacific, which in turn affects the evolution of the SST.
A new methodology (combined
Pacific variability mode) is developed to objectively analyze how climate change may be synergistically interacting with
Pacific sea surface temperature associated warm season teleconnections in North America.
They found a 60 - to 90 - year cycle in Barents and Greenland
seas ice extent related to the Atlantic Multidecadal Oscillation (AMO); the AMO is a basin - wide cycle of
sea surface temperature variability similar to the El Niño and La Niña cycles in the
Pacific, but varying over much longer periods.
Reconstructing twentieth - century
sea surface temperature variability in the southwest
Pacific: A replication study using multiple coral Sr / Ca records from New Caledonia.
They write in their abstract: «The
Pacific decadal oscillation (PDO), defined as the leading empirical orthogonal function of North
Pacific sea surface temperature anomalies, is a widely used index for decadal
variability.
The one off California seems to have a very strong influence as well and yes, the
variability in
sea surface temperature in the northern tropical
Pacific is more extreme than the
variability to the south.
Decadal variations in the North
Pacific Gyre Oscillation are characterized by a pattern of
sea surface temperature anomalies that resemble the central
Pacific El Niño, a dominant mode of interannual
variability with far - reaching effects on global climate patterns5, 6, 7.
Tourre, Y. M., Y. Kushnir, and W. B. White, 1999: Evolution of interdecadal
variability in
sea level pressure,
sea surface temperature, and upper ocean
temperature over the
Pacific Ocean.
The large interannual to decadal hydroclimatic
variability in winter precipitation is highly influenced by
sea surface temperature (SST) anomalies in the tropical
Pacific Ocean and associated changes in large - scale atmospheric circulation patterns [16].
Over these shorter periods, there are many modes of climate
variability, usually involving semi-structured oscillations in
sea surface temperatures, like the El Niño - Southern Oscillation, the
Pacific Decadal Oscillation, the Arctic Oscillation, and so on.
Strong correlations between
temperatures and
Pacific sea surface temperatures (SSTs) particularly
Pacific Decadal Oscillation (PDO) values, also account for
temperature variability throughout the state.
Regional circulation patterns have significantly changed in recent years.2 For example, changes in the Arctic Oscillation can not be explained by natural variation and it has been suggested that they are broadly consistent with the expected influence of human - induced climate change.3 The signature of global warming has also been identified in recent changes in the
Pacific Decadal Oscillation, a pattern of
variability in
sea surface temperatures in the northern
Pacific Ocean.4
Other researchers are investigating
variability in the
Pacific Ocean, including a measure of
sea surface temperatures known as the
Pacific Decadal Oscillation (PDO).
The PDO does not represent the multidecadal
variability in the
sea surface temperatures of the North
Pacific.
The rainfall
variability emerges out of
sea surface temperature variability in the
Pacific Ocean.
Now, a team of climatologists, led by researchers at the University of California, Riverside, posits that the recent widening of the tropical belt is primarily caused by multi-decadal
sea surface temperature variability in the
Pacific Ocean.
«Climatologists posit that the recent widening of the tropical belt is primarily caused by multi-decadal
sea surface temperature variability in the
Pacific Ocean.
Finds that, in the Atlantic,
variability on time scales of a few years and more is strongly correlated with tropical Atlantic
sea surface temperature, while in the western North
Pacific, this correlation, while still present, is considerably weaker