Working group on Gas Hydrates and Natural Seeps in the Nordic Sea region (GANS)

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Working group on Gas Hydrates and Natural Seeps in the Nordic Sea region (GANS) Hans Petter Sejrup (UoB)

Gas Hydrates and Natural Seeps in the Nordic Sea region Where Where? Who Who? Objectives Objectives?

Gas hydrates occur worldwide After Kvenvolden and Lorenson (2000) locations with recovered gas hydrate samples inferred gas hydrate occurrences based on BSRs and well-logs

Background for meeting in Bergen Extensive evidence of gas hydrates and seeps on the norwegian continental margin Why? Basic knowledge on nature systems (geo, bio..) Biological resources Gas hydrates as a resource Gas hydrates as a risk factor Overview of related research in Norway Discuss strategies to strengthen this research Research priorities Need for coordination Sources for funding

Focus of research groups/institutions behind the GANS initiativ: University of Tromsø (Mienert/Andreassen) Gas hydrates and slope stability Gas hydrates: where, why and volumes Gas in sediments and geotechnical aspects Geological Survey of Norway (Bøe( Bøe/Knies) Mapping of gas hydrates and seeps Gas hydrates as an energy resource Gas hydrates, seeps and environment Norwegian geotechnical institute (Kvalstad( Kvalstad) Gas hydrates and slope instability Gas in sediments Physics of gas hydrates

Cont. groups involved University of Bergen Department of Earth Science (Sejrup( Sejrup/Hjelstuen/Haflidason) Seafloor expression of seeps Gas hydrates and climate Margin development and gas hydrates University of Bergen Department of Earth Science (Pedersen/Thorseth Thorseth) Subsurface biosphere Hydrothermal activity and seeps University of Bergen - Department of Physics and Technology (Kvamme( Kvamme/Hellevang) Modelling of processes and phenomena which are partly or in whole e dominated by thermodynamics. Modelling of phase equilibrium and phase transition kinetics on micro- and macro-level. Estimation of physical properties and transport properties by molecular simulations. Statoil (Hovland) And Seafloor expressions of seeps and gas hydrates

Biology.

DEVELOPMENT OF RESEARCH INFRASTRUCTURE Field platforms Multibeam systems TOPAZ ROV facilities Coring equipment Surfac sediment sampling Etc.. Experimetal facilities Analytical facilities Modelling Laponitecovered by water layer Air pressure above water 6 bar for several weeks Air diffusion into Laponite Pressure reduction Gas bubble formation Gas in sediments(ngi)

Funding possibilities / Research EU HERMES ESF Euromargin Eurodeep Industry NFR Program SFF initiatives Need for national coordination?

Overall objectives for GANS Strengthen multidisciplinary research on deep-sea systems in Norway Develop a strategy for research on natural seeps and gas hydrates in Norway Contribute in national coordination of research on natural seeps and gas hydrates in Norway Coordinate the use and development of research infrastructures important for research on natural seeps and gas hydrates Contribute in the international evaluations of strategies for hydrate reservoir exploitation

Preliminary research tasks/focus points Gas and gas hydrate formation processes and conditions for transport, accumulation, preservation and dissociation ( melting ) in sediments (i.e. gas generation, fluid flow, diffusion, crystallisation, sublimation, heat flow, thermodynamics, hydraulics and geomechanics) Effect of gas hydrate (amount and distribution) on physical properties of sediment (elastic, electric, thermodynamic, strength etc.) Detection and quantification of in situ gas hydrate content and distribution pattern

(cont.) research tasks/focus points Effect of dissociation on soil properties (risk of slope instability and dislodgement of wells and subsea structures) Gas hydrates as an energy resource: production methods Natural seeps, habitats and ecology Rapid methane release and climate change Geohazard and environmental impact Database

Visions for marine research in Norway Resources and geography Deep sea challenges - interdiciplinary research Challenges for the Norwegian marine research community Handling known problems Be a part of the knowledge based future exploration and handling of deep sea systems

Further developments of GANS Scientific rational - open process Structure and management Activities, meetings.. Funding..

Major sedimentary processes: Glacial fed debris flows Mega scale sliding Marine/glacial marine sed. Ice sheet-ocean interaction

VØRING MARGIN STOREGGA SLIDE NORTH SEA FAN

SW Megaslides and BSRs - Southern Vøring Margin NE BSR Vøring Plateau 1.5 Storegga Slide Scar s (twt) 2.0

Paleoceanography - stability of Gas Hydrates

Storegga Slide Morphological provinces Area: 95.000 km 2 Vol.: 3200 km 3 Run out: 800 km

Dating of the Storegga Slide Haflidason et al. in press

Methane and climate change?? Troll core Storegga slide Timing of events Estimates of volumes