Submarine Mass Movements and their Consequences

1. Submarine Mass Movements and Their Consequences: Progress and Challenges.- Part I Submarine Mass Movement in Margin Construction and Economic Significance2. The Role of Submarine Landslides in the Law of the Sea.- 3. Fabric Development and Pore-Throat Reduction in a Mass-Transport Deposit in the Jubilee Gas Field, Eastern Gulf of Mexico: Consequences for the Sealing Capacity of MTDs.- 4. Seismic geomorphology of the Israel Slump Complex in the central Levant Basin (SE Mediterranean).- 5. Multiple Megaslide Complexes and their Significance for the Miocene stratigraphic evolution of the offshore Amazon Basin.- 6. Kinematics of submarine slope failures in the deepwater Taranaki Basin, New Zealand.- Part II Failure dynamics from landslide geomorphology.- 7. Postglacial Mass Failures in the Inner Hardangerfjorden System, Western Norway.- 8. Onshore and offshore geomorphological features of the El Golfo debris avalanche (El Hierro, Canary Islands).- 9. New insights on failure and post-failure dynamics of submarine landslides on the intra-slope Palmarola ridge (Central Tyrrhenian Sea).- 10. Assessment of Canyon Wall Failure Process from Multibeam Bathymetry and Remotely Operated Vehicle (ROV) Observations, U.S. Atlantic Continental Margin.- 11. The Chui Megaslide Complex: regional-scale submarine landslides on the Southern Brazilian Margin.- 12. Submarine landslides and incised canyons of the southeast Queensland continental margin.- 13. Novel method to map the morphology of submarine landslide headwall scarps using Remotely Operated Vehicles.- 14. Flow behaviour of a giant landslide and debris flow entering Agadir Canyon, NW Africa.- 15. Fine-Scale Morphology of Tubeworm Slump, Monterey Canyon.- 16. Submarine slide topography and the Distribution of Vulnerable Marine Ecosystems: A Case Study in the Ionian Sea (Eastern Mediterranean).- Part III Geotechnical aspects of mass movement.- 17. Shear Strength of Siliciclastic Sediments fromPassive and Active Margins (0-100 meters below seafloor): Insights into Seismic Strengthening.- 18. A small volume calibration chamber for cone penetration testing (CPT) on submarine soils.- 19. Underwater Mass Movements in Lake Mjosa, Norway.- 20. In situ cyclic softening of marine silts by vibratory CPTU at Orkdalsfjord test site, mid Norway.- 21. First results of the geotechnical in situ investigation for soil characterisation along the upper slope off Vesteralen - Northern Norway.- 22. A novel micro-shear tester for failure analysis of fine and cohesive granular matter.- 23. Knickpoint migration induced by landslide: Evidence from laboratory to field observations in Wabush Lake.- 24. Multiple flow slide experiment in the Westerschelde Estuary, The Netherlands.- Part IV Multidisciplinary case studies.- 25. Submarine mass wasting on Hovgaard Ridge, Fram Strait, European Arctic.- 26. 3D seismic investigations of Pleistocene Mass Transport Deposits and Glacigenic Debris Flows on the North Sea Fan, NE Atlantic Margin.- 27. Do embedded volcaniclastic layers serve as potential glide planes? - An integrated analysis from the Gela Basin offshore southern Sicily.- 28. Sediment failure affecting muddy contourites on the continental slope offshore northern Norway - lessons learned and some outstanding issues.- 29. Mass Wasting History within Lake Ohrid Basin (Albania/Macedonia) over the last 600ka.- 30. Implications of Sediment Dynamics in Mass Transport along the Pianosa Ridge (Northern Tyrrhenian Sea).- 31. Late-Holocene Mass Movements in High Arctic East Lake, Melville Island (Western Canadian Arctic Archipelago).- 32. Pleistocene Mass Transport Complexes off Barbados accretionary prism (Lesser Antilles).- 33. Exploring the Influence of Deepwater Currents as Potential Triggers for Slope Instability.- Part V Tectonics and mass movements.- 34. French alpine foreland Holocene paleoseismicity revealed by coeval mass wasting deposits in glacial lakes.-35. Spatial and temporal relation of submarine landslides and faults along the Israeli continental slope, eastern Mediterranean.- 36. Earthquake induced landslides in Lake Eternite, Quebec, Canada.- 37. Large Mass Transport Deposits in Kumano Basin, Nankai Trough, Japan.- 38. Insights into Effectiveness of Simplified Seismic Displacement Procedures to Evaluate Earthquake Behavior of a Deepwater Slope.- Part VI Fluid flow and gas hydrates.- 39. Deriving the Rate of Salt Rise at the Cape Fear Slide Using New Seismic Data.- 40. Submarine slope instabilities coincident with shallow gas hydrate systems: insights from New Zealand examples.- 41. Eel Canyon Slump Scar and Associated Fluid Venting.- 42. Shallow gas and the development of a weak layer in submarine spreading, Hikurangi margin (New Zealand).- 43. Stability of fine-grained sediments subject to gas hydrate dissociation in the Arctic continental margin.- Part VII Mass transport deposits in modern and outcrop sedimentology.- 44. Soft-sediment deformation associated with mass transport deposits of the aAnsa basin (Spanish Pyrenees).- 45. Synsedimentary tectonics and mass wasting along the Alpine margin in Liassic time.- 46. Meso-scale kinematic indicators in exhumed mass transport deposits: definitions and implications.- 47. Morphodynamics of supercritical turbidity currents in the channel-lobe transition zone.- 48. Tiny fossils, big impact: the role of foraminifera-enriched condensed section in arresting the movement of a large retrogressive submarine landslide in the Gulf of Mexico.- 49. Inclusion of substrate blocks within a mass transport deposit: A case study from Cerro Bola, Argentina.- Part VIII Numerical and statistical analysis.- 50. GIS catalogue of submarine landslides in the Spanish Continental Shelf: potential and difficulties for susceptibility assessment.- 51. Tempo and triggering of large submarine landslides - Statistical analysis for hazard assessment.- 52. Morphologicalcontrols on submarine slab failures.- 53. Incorporating Correlated Variables into GIS-Based Probabilistic Submarine Slope Stability Assessments.- 54. Quantifying the key role of slope material peak strength - using Discrete Element simulations.- 55. Correction Factors for 1-D Runout Analyses of Selected Submarine Slides.- Part IX Tsunami generation from slope failure.- 56. Volcanic generation of tsunamis: Two New Zealand palaeo-events.- 57. Tsunami-genesis due to retrogressive landslides on an inclined seabed.- 58. Geothermal System as the Cause of the 1979 Landslide Tsunami in Lembata Island, Indonesia.- 59. Towards a spatial probabilistic submarine landslide hazard model for submarine canyons.- 60. Coupled modelling of the failure and tsunami of a submarine debris avalanche offshore central New Zealand.- 61. Observations of coastal landslide-generated tsunami under an ice cover: the case of Lac-des-Seize-Iles, Quebec, Canada.- Index.

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• Oceanografia (mares)
• Geografia física e topografia
• Ciências da terra
• Ciências do solo, sedimentologia
• Desastres naturais

Hazards and Submarine Mass Movement;Marine Hazards and Tsunamis;Mass-movements and Tsunamis;Submarine Landslides and Coastal and Marine Hazards;Submarine Mass Instability and Coastal Hazards