cris.boxmetadata.label.title
The Southwest Pacific Ocean circulation and climate experiment (SPICE)
cris.boxmetadata.label.dateissued
01 browse.startsWith.months.january 2014
cris.boxmetadata.label.accesslevel
open access
cris.boxmetadata.label.resourcetype
journal article
cris.boxmetadata.label.authors
Ganachaud A.
Cravatte S.
Melet A.
Schiller A.
Holbrook N.J.
Sloyan B.M.
Widlansky M.J.
Bowen M.
Verron J.
Wiles P.
Ridgway K.
Sutton P.
Sprintall J.
Steinberg C.
Brassington G.
Cai W.
Davis R.
Gasparin F.
Gourdeau L.
Hasegawa T.
Kessler W.
Maes C.
TAKAHASHI GUEVARA, KEN
Richards K.J.
Send U.
cris.boxmetadata.label.publisher
Blackwell Publishing Ltd
cris.boxmetadata.label.abstract
The Southwest Pacific Ocean Circulation and Climate Experiment (SPICE) is an international research program under the auspices of CLIVAR. The key objectives are to understand the Southwest Pacific Ocean circulation and the South Pacific Convergence Zone (SPCZ) dynamics, as well as their influence on regional and basin-scale climate patterns. South Pacific thermocline waters are transported in the westward flowing South Equatorial Current (SEC) toward Australia and Papua-New Guinea. On its way, the SEC encounters the numerous islands and straits of the Southwest Pacific and forms boundary currents and jets that eventually redistribute water to the equator and high latitudes. The transit in the Coral, Solomon, and Tasman Seas is of great importance to the climate system because changes in either the temperature or the amount of water arriving at the equator have the capability to modulate the El Niño-Southern Oscillation, while the southward transports influence the climate and biodiversity in the Tasman Sea. After 7 years of substantial in situ oceanic observational and modeling efforts, our understanding of the region has much improved. We have a refined description of the SPCZ behavior, boundary currents, pathways, and water mass transformation, including the previously undocumented Solomon Sea. The transports are large and vary substantially in a counter-intuitive way, with asymmetries and gating effects that depend on time scales. This paper provides a review of recent advancements and discusses our current knowledge gaps and important emerging research directions.
cris.boxmetadata.label.citationstartpage
7660
cris.boxmetadata.label.citationendpage
7686
cris.boxmetadata.label.volume
119
cris.boxmetadata.label.issue
11
cris.boxmetadata.label.language
English
cris.boxmetadata.label.ocdeknowledgeArea
Meteorología y ciencias atmosféricas Oceanografía, Hidrología, Recursos hídricos
cris.boxmetadata.label.doi
cris.boxmetadata.label.scopusidentifier
2-s2.0-84915746099
cris.boxmetadata.label.source
Journal of Geophysical Research: Oceans
cris.boxmetadata.label.containerissn
21699275
cris.boxmetadata.label.sponsor
National Science Foundation 1029487
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