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Please use this identifier to cite or link to this item: http://hdl.handle.net/2122/7104

Authors: Ruhl, H. A.*
Andrè, M.*
Beranzoli, L.*
Çagatay, M. N.*
Colaço, A.*
Cannat, M.*
Dañobeitia, J. J.*
Favali, P.*
Géli, L.*
Gillooly, M.*
Greinert, J.*
Hall, P. O. J.*
Huber, R.*
Karstensen, J.*
Lampitt, R. S.*
Larkin, K. E.*
Lykousis, V.*
Mienert, J.*
Miranda, J. M.*
Person, R.*
Priede, I. G.*
Puillat, I.*
Thomsen, L.*
Waldmann, C.*
Title: Societal need for improved understanding of climate change, anthropogenic impacts, and geo-hazard warning drive development of ocean observatories in European Seas
Title of journal: Progress in Oceanography
Series/Report no.: /91 (2011)
Publisher: Elsevier
Issue Date: 2011
DOI: 10.1016/j.pocean.2011.05.001
Keywords: Seafloor and water columnobservatories
Abstract: Society’s needs for a network of in situ ocean observing systems cross many areas of earth and marine science. Here we review the science themes that benefit from data supplied from ocean observatories. Understanding from existing studies is fragmented to the extent that it lacks the coherent long-term monitoring needed to address questions at the scales essential to understand climate change and improve geo-hazard early warning. Data sets from the deep sea are particularly rare with long-term data available from only a few locations worldwide. These science areas have impacts on societal health and well-being and our awareness of ocean function in a shifting climate. Substantial efforts are underway to realise a network of open-ocean observatories around European Seas that will operate over multiple decades. Some systems are already collecting high-resolution data from surface, water column, seafloor, and sub-seafloor sensors linked to shore by satellite or cable connection in real or near-real time, along with samples and other data collected in a delayed mode. We expect that such observatories will contribute to answering major ocean science questions including: How can monitoring of factors such as seismic activity, pore fluid chemistry and pressure, and gas hydrate stability improve seismic, slope failure, and tsunami warning? What aspects of physical oceanography, biogeochemical cycling, and ecosystems will be most sensitive to climatic and anthropogenic change? What are natural versus anthropogenic changes? Most fundamentally, how are marine processes that occur at differing scales related? The development of ocean observatories provides a substantial opportunity for ocean science to evolve in Europe. Here we also describe some basic attributes of network design. Observatory networks provide the means to coordinate and integrate the collection of standardised data capable of bridging measurement scales across a dispersed area in European Seas adding needed certainty to estimates of future oceanic conditions. Observatory data can be analysed along with other data such as those from satellites, drifting floats, autonomous underwater vehicles, model analysis, and the known distribution and abundances of marine fauna in order to address some of the questions posed above. Standardised methods for information management are also becoming established to ensure better accessibility and traceability of these data sets and ultimately to increase their use for societal benefit. The connection of ocean observatory effort into larger frameworks including the Global Earth Observation System of Systems (GEOSS) and the Global Monitoring of Environment and Security (GMES) is integral to its success. It is in a greater integrated framework that the full potential of the component systems will be realised.
Appears in Collections:Papers Published / Papers in press
03.03.05. Instruments and techniques
03.04.01. Biogeochemical cycles
03.04.02. Carbon cycling
03.04.03. Chemistry of waters
03.04.04. Ecosystems
03.04.05. Gases
03.04.06. Hydrothermal systems
03.04.08. Instruments and techniques
04.01.02. Geological and geophysical evidences of deep processes
04.04.04. Marine geology
04.04.11. Instruments and techniques
04.04.12. Fluid Geochemistry
04.05.05. Main geomagnetic field
04.05.08. Instruments and techniques
04.06.06. Surveys, measurements, and monitoring
04.06.07. Tomography and anisotropy
04.06.08. Volcano seismology
04.06.10. Instruments and techniques
04.07.02. Geodynamics
04.07.03. Heat generation and transport
04.07.04. Plate boundaries, motion, and tectonics
04.07.07. Tectonics
04.08.01. Gases
04.08.02. Experimental volcanism
04.08.06. Volcano monitoring
04.08.07. Instruments and techniques
05.01.01. Data processing
05.02.99. General or miscellaneous
05.02.01. Geochemical data
05.02.02. Seismological data
05.02.03. Volcanic eruptions
05.02.04. Hydrogeological data
05.08.01. Environmental risk
05.08.02. Hydrogeological risk
01.01.02. Climate
01.01.04. Processes and Dynamics
01.01.08. Instruments and techniques
03.01.03. Global climate models
03.01.07. Physical and biogeochemical interactions
03.01.08. Instruments and techniques
03.03.01. Air/water/earth interactions
03.03.02. General circulation
03.03.03. Interannual-to-decadal ocean variability

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