TY - JOUR
T1 - Ocean climate observing requirements in support of Climate Research and Climate Information
AU - Stammer, Detlef
AU - Bracco, Annalisa
AU - AchutaRao, Krishna
AU - Beal, Lisa
AU - Bindoff, Nathan
AU - Braconnot, Pascale
AU - Cai, Wenju
AU - Chen, Dake
AU - Collins, Matthew
AU - Danabasoglu, Gokhan
AU - Dewitte, Boris
AU - Farneti, Riccardo
AU - Fox-Kemper, Baylor
AU - Fyfe, John
AU - Griffies, Stephen
AU - Jayne, Steven R.
AU - Lazar, Alban
AU - Lengaigne, Matthieu
AU - Lin, Xiaopei
AU - Marsland, Simon
AU - Minobe, Shoshiro
AU - Monteiro, Pedro
AU - Robinson, Walter
AU - Koll, Roxy M.
AU - Rykaczewski, Ryan
AU - Speich, Sabrina
AU - Smith, Inga
AU - Solomon, Amy
AU - Storto, Andrea
AU - Takahashi, Ken
AU - Tonazzo, Thomas
AU - Vialard, Jerome
N1 - Publisher Copyright:
© 2019 Stammer, Bracco, AchutaRao, Beal, Bindoff, Braconnot, Cai, Chen, Collins, Danabasoglu, Dewitte, Farneti, Fox-Kemper, Fyfe, Griffies, Jayne, Lazar, Lengaigne, Lin, Marsland, Minobe, Monteiro, Robinson, Koll, Rykaczewski, Speich, Smith, Solomon, Storto, Takahashi, Tonazzo and Vialard.
PY - 2019
Y1 - 2019
N2 - Natural variability and change of the Earth's climate have significant global societal impacts. With its large heat and carbon capacity and relatively slow dynamics, the ocean plays an integral role in climate, and provides an important source of predictability at seasonal and longer timescales. In addition, the ocean provides the slowly evolving lower boundary to the atmosphere, both driving and modifying atmospheric weather and climate. Understanding and monitoring ocean climate variability and change, to constrain and initialize models as well as identify model biases for improved climate hindcasting and prediction requires a more scale-sensitive, long-term observing system. A climate observing system has requirements that significantly differ from, and sometimes are orthogonal to, those of other applications. In general terms, they can be summarized by the simultaneous need for both large spatial and long temporal coverage, and by the accuracy and stability required for detecting the local climate signals. This paper reviews the requirements of a climate observing system in terms of space and time scales, and revisits the question of which parameters such a system should encompass to meet future strategic goals of the World Climate Research Program (WCRP), with emphasis on ocean and sea-ice covered areas. It considers global as well as regional aspects that should be accounted for in designing observing systems in individual basins. Furthermore, the paper discusses which data-driven products are required to meet WCRP research and modeling needs, and ways to obtain them through data synthesis and assimilation approaches. Finally, it addresses the need for scientific capacity building and international collaboration in support of the collection of high-quality measurements over the large spatial scales and long time-scales required for climate research, bridging the scientific rational to the required resources for implementation.
AB - Natural variability and change of the Earth's climate have significant global societal impacts. With its large heat and carbon capacity and relatively slow dynamics, the ocean plays an integral role in climate, and provides an important source of predictability at seasonal and longer timescales. In addition, the ocean provides the slowly evolving lower boundary to the atmosphere, both driving and modifying atmospheric weather and climate. Understanding and monitoring ocean climate variability and change, to constrain and initialize models as well as identify model biases for improved climate hindcasting and prediction requires a more scale-sensitive, long-term observing system. A climate observing system has requirements that significantly differ from, and sometimes are orthogonal to, those of other applications. In general terms, they can be summarized by the simultaneous need for both large spatial and long temporal coverage, and by the accuracy and stability required for detecting the local climate signals. This paper reviews the requirements of a climate observing system in terms of space and time scales, and revisits the question of which parameters such a system should encompass to meet future strategic goals of the World Climate Research Program (WCRP), with emphasis on ocean and sea-ice covered areas. It considers global as well as regional aspects that should be accounted for in designing observing systems in individual basins. Furthermore, the paper discusses which data-driven products are required to meet WCRP research and modeling needs, and ways to obtain them through data synthesis and assimilation approaches. Finally, it addresses the need for scientific capacity building and international collaboration in support of the collection of high-quality measurements over the large spatial scales and long time-scales required for climate research, bridging the scientific rational to the required resources for implementation.
KW - Climate information
KW - Climate observations
KW - Integrated observing system
KW - Observing gabs
KW - Ocean observations
UR - https://www.scopus.com/pages/publications/85069786953
U2 - 10.3389/fmars.2019.00444
DO - 10.3389/fmars.2019.00444
M3 - Review article
AN - SCOPUS:85069786953
SN - 2296-7745
VL - 6
JO - Frontiers in Marine Science
JF - Frontiers in Marine Science
IS - JUL
M1 - 444
ER -